WO2021012386A1 - Multi-channel narrowband communication method and system therefor and lighting device - Google Patents
Multi-channel narrowband communication method and system therefor and lighting device Download PDFInfo
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- WO2021012386A1 WO2021012386A1 PCT/CN2019/108376 CN2019108376W WO2021012386A1 WO 2021012386 A1 WO2021012386 A1 WO 2021012386A1 CN 2019108376 W CN2019108376 W CN 2019108376W WO 2021012386 A1 WO2021012386 A1 WO 2021012386A1
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- WIPO (PCT)
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- communication frequency
- host
- frequency band
- narrowband communication
- band
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F21—LIGHTING
- F21V—FUNCTIONAL FEATURES OR DETAILS OF LIGHTING DEVICES OR SYSTEMS THEREOF; STRUCTURAL COMBINATIONS OF LIGHTING DEVICES WITH OTHER ARTICLES, NOT OTHERWISE PROVIDED FOR
- F21V23/00—Arrangement of electric circuit elements in or on lighting devices
- F21V23/04—Arrangement of electric circuit elements in or on lighting devices the elements being switches
- F21V23/0435—Arrangement of electric circuit elements in or on lighting devices the elements being switches activated by remote control means
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04W—WIRELESS COMMUNICATION NETWORKS
- H04W72/00—Local resource management
- H04W72/04—Wireless resource allocation
- H04W72/044—Wireless resource allocation based on the type of the allocated resource
- H04W72/0453—Resources in frequency domain, e.g. a carrier in FDMA
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04W—WIRELESS COMMUNICATION NETWORKS
- H04W72/00—Local resource management
- H04W72/50—Allocation or scheduling criteria for wireless resources
- H04W72/53—Allocation or scheduling criteria for wireless resources based on regulatory allocation policies
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- H—ELECTRICITY
- H05—ELECTRIC TECHNIQUES NOT OTHERWISE PROVIDED FOR
- H05B—ELECTRIC HEATING; ELECTRIC LIGHT SOURCES NOT OTHERWISE PROVIDED FOR; CIRCUIT ARRANGEMENTS FOR ELECTRIC LIGHT SOURCES, IN GENERAL
- H05B47/00—Circuit arrangements for operating light sources in general, i.e. where the type of light source is not relevant
- H05B47/10—Controlling the light source
- H05B47/175—Controlling the light source by remote control
- H05B47/19—Controlling the light source by remote control via wireless transmission
Definitions
- the present invention relates to the field of communication technology, in particular to a multi-channel narrowband communication method, its system and lighting equipment.
- Another solution on the market is to first distinguish the information of the same communication frequency band by encoding the address, and then load the data information that needs to be communicated to realize the marking and identification of the data information.
- the communication speed of this solution is relatively slow, mainly because when multiple computers communicate, it will cause communication data jam/queuing phenomenon, which will cause the receiver to receive interference or the receiver can not receive any signal.
- the information of the same communication frequency band is distinguished by the coded address method.
- the receiving address mark is very easy to change or become invalid, causing the signal not to be received or the device to lose contact.
- An object of the present invention is to provide a multi-channel narrowband communication method and its system and lighting equipment, which can solve the problems of communication data blockage and data failure.
- Another object of the present invention is to provide a multi-channel narrowband communication method and its system and lighting equipment, which can improve communication speed and communication efficiency, and help ensure the real-time and accuracy of communication data.
- Another object of the present invention is to provide a multi-channel narrowband communication method and its system and lighting equipment, wherein, in an embodiment of the present invention, the multi-channel narrowband communication method divides the communication frequency band into multiple narrowbands.
- Frequency communication frequency band in order to establish multiple different high-speed channels and distinguish the information of the same communication frequency band by different channels, that is, the information in each of the narrow frequency communication frequency bands corresponds to the corresponding absolute target, avoiding the use of the coordinator, At the same time, it is convenient to ensure the efficient communication while achieving the effect that the channels do not conflict with each other and the reception does not interfere with each other.
- Another object of the present invention is to provide a multi-channel narrowband communication method and its system and lighting equipment, wherein, in an embodiment of the present invention, the multi-channel narrowband communication method provides a plurality of fixed narrowband communications
- the frequency band is conducive to the reliable connection and communication of each device on the same frequency band, which helps the accuracy of control and the uniqueness of the address.
- Another object of the present invention is to provide a multi-channel narrowband communication method and its system and lighting equipment, wherein each fixed narrowband communication frequency band is only for the communication of signals of the same frequency band to control the uniqueness of communication of the equipment on the same frequency band , Thereby improving the reliability of information transmission.
- Another object of the present invention is to provide a multi-channel narrowband communication method and its system and lighting equipment, wherein, in an embodiment of the present invention, the multi-channel narrowband communication method provides a plurality of fixed narrowband communications Frequency band, at the same time, different information is distinguished by encoding address in the same narrow-band communication frequency band, which further improves the accuracy of communication and the uniqueness of the address, and at the same time increases the amount of communication and is beneficial to improving communication efficiency.
- Another object of the present invention is to provide a multi-channel narrowband communication method and its system and lighting equipment, wherein, in an embodiment of the present invention, the multi-channel narrowband communication method provides a plurality of fixed narrowband communications Frequency band, at the same time in the same narrow-band communication frequency band, different information is distinguished by encoding address, which is conducive to packet communication and facilitates accurate batch control.
- Another object of the present invention is to provide a multi-channel narrowband communication method and its system and lighting equipment, wherein, in an embodiment of the present invention, the multi-channel narrowband communication method can realize different narrowband communication frequency bands. Switching between different narrowband communication frequency bands for communication is beneficial to expand the application range of the multi-channel narrowband communication method and improve communication efficiency.
- Another object of the present invention is to provide a multi-channel narrowband communication method and its system and lighting equipment, wherein in the multi-channel narrowband communication method, the switching sequence between different narrowband communication frequency bands can be set And it is beneficial to realize the control with clear directionality, such as point-to-point one-to-one control, point-to-forward control and point-to-back control.
- Another object of the present invention is to provide a multi-channel narrowband communication method and its system and lighting equipment, wherein in the multi-channel narrowband communication method, the multi-channel narrowband communication method can provide two or more
- the narrow frequency communication frequency band is conducive to packet communication and easy to achieve precise batch control.
- it is conducive to the realization of multi-directional control, such as point forward and backward one send and multiple receive control.
- Another object of the present invention is to provide a multi-channel narrowband communication method and system and lighting equipment, wherein, in an embodiment of the present invention, the switching sequence between different narrowband communication frequency bands can be set, At the same time, one switch can provide two or more narrow-band communication frequency bands at the same time, which is beneficial to realize multi-target control with clear directionality and multi-target batch precision control with multi-directionality.
- Another object of the present invention is to provide a multi-channel narrowband communication method and its system and lighting equipment, wherein, in an embodiment of the present invention, the multi-channel narrowband communication method can be applied to the field of lighting systems, In order to provide communication services in the lighting system and realize the self-management of the lighting system.
- Another object of the present invention is to provide a multi-channel narrowband communication method and system and lighting equipment, wherein, in an embodiment of the present invention, the multi-channel narrowband communication method can realize energy-saving management of the lighting system, Help save energy.
- Another object of the present invention is to provide a multi-channel narrowband communication method and its system and lighting equipment, wherein, in order to achieve the above-mentioned object, the present invention does not need to use expensive materials or complicated structures. Therefore, the present invention successfully and effectively provides a solution, which not only provides a simple multi-channel narrowband communication method and its system and lighting equipment, but also adds the multi-channel narrowband communication method and its system. And the practicability and reliability of lighting equipment.
- the present invention provides a multi-channel narrowband communication method, including the steps:
- one of the narrowband communication frequency bands is switched to another narrowband communication frequency band, so as to perform interference-free communication between different narrowband communication frequency bands, Including steps:
- switch to the second narrowband communication frequency band to load and transmit the second channel signal, wherein the communication frequency of the first narrowband communication frequency band is different from that of the second narrowband communication frequency band.
- the communication frequency of the communication frequency band is different from that of the second narrowband communication frequency band.
- one of the narrowband communication frequency bands is switched to another narrowband communication frequency band, so as to perform interference-free communication between different narrowband communication frequency bands, It also includes steps:
- switch to the third narrowband communication frequency band to load and transmit the third channel signal, wherein the communication frequency of the third narrowband communication frequency band is different from that of the first And the communication frequency of the second narrowband communication band.
- the frequency intervals of the second narrowband communication frequency and the third narrowband communication frequency are not adjacent to each other.
- the signal can only be transmitted by a transmitter that is previously set to or switched to the matching narrow-band communication frequency band;
- the matched receiver of the narrow-band communication frequency band receives.
- different first channel signals have different encoding addresses.
- the present invention provides a multi-channel narrowband communication system, including:
- each of the first hosts includes a first transmitting host, wherein the first transmitting host is set to have a first narrow-band communication frequency band for being triggered to transmit and the first narrow The first channel signal matching the frequency communication frequency band;
- each second host includes a second transmitting host, wherein the second transmitting host is configured to have a second narrow-band communication frequency band for being triggered to transmit and the second narrow A second channel signal matching the frequency communication frequency band, wherein the communication frequency of the second narrowband communication frequency band is different from the communication frequency of the first narrowband communication frequency band;
- At least one first receiving slave wherein each of the first receiving slaves is set to have the first narrowband communication frequency band for receiving the first channel signal;
- At least one second receiving slave wherein each of the second receiving slaves is configured to have the second narrowband communication frequency band for receiving the second channel signal.
- the multi-channel narrowband communication system further includes at least one third master and at least one third receiving slave, wherein each of the third masters includes a third transmitting master, and The third transmitting host is set to have a third narrow-band communication frequency band for being triggered to transmit a third channel signal matching the third narrow-band communication frequency band, wherein the communication of the third narrow-band communication frequency band
- the frequencies are different from the communication frequencies of the first and second narrowband communication frequency bands; wherein each of the third receiving slaves is set to have the third narrowband communication frequency band for receiving the third channel signal .
- each of the first hosts further includes a first receiving host, and the first receiving host is configured to have the first narrowband communication frequency band for receiving the A first channel signal; each of the second hosts further includes a second receiving host, wherein the second receiving host is configured to have the second narrowband communication frequency band for receiving the second channel signal; each The third host further includes a third receiving host, wherein the third receiving host is configured to have the third narrowband communication frequency band for receiving the third channel signal.
- the first transmitting host of the first host is controlled to switch to the second narrow-band communication frequency band for transmitting and the second narrow-band communication frequency band.
- Matched second channel signal wherein the second receiving host of the second host is also used to receive the second channel signal.
- the first transmitting host of the first host is further controlled to switch to the third narrowband communication frequency band for transmitting and the third narrowband communication frequency band Matching third channel signal; wherein the third receiving host of the third host is also used to receive the third channel signal.
- the second receiving slave is also used to receive the first channel signal and/or the third channel signal; wherein the third receiving slave is also used to receive The first channel signal and/or the second channel signal.
- each of the first hosts is adapted to be communicably connected to a main induction lamp of a lighting system for when the main induction lamp senses a moving person or object,
- the first transmitting host of the first host is used to be triggered to transmit the first channel signal.
- each of the first hosts is adapted to be communicably connected to a main induction lamp of a lighting system, wherein when the main induction lamp senses a moving person or object, all The first transmitting host of the first host is used to be triggered to transmit the first channel signal.
- the first transmitting host of the first host is further configured to be switched to the second narrowband communication frequency band after the first channel signal is transmitted, To transmit the second channel signal.
- the first host when the first receiving host of the first host receives the first channel signal, the first host is also used to light up the communication with the first host
- the main induction lamp can be communicably connected.
- the second host when the second receiving host of the second host receives the second channel signal, the second host is further configured to The main induction lamp can be communicably connected.
- each of the first receiving slaves is adapted to be communicably connected to a slave induction lamp of the lighting system, wherein when the first receiving slave receives the first In the case of a channel signal, the first receiving slave is also used to light the slave induction lamp communicably connected with the first receiving slave.
- the present invention also provides a lighting device, including:
- a lamp body used for luminous lighting
- a sensing device wherein the sensing device is communicably disposed on the lamp body, and is used to sense people or objects moving around the lamp body, and when the moving people or objects are sensed, an action command signal is issued , Causing the lamp body to be lit for illumination in response to the action instruction signal; and
- a host wherein the host includes a transmitting host communicably connected with the sensing device, wherein the transmitting host has at least two narrow-band communication frequency bands and is configured to respond to all of the narrow-band communication frequency bands.
- the action command signal is triggered to transmit a signal that matches the frequency of the narrow-band communication frequency band.
- the host further includes a receiving host communicably connected with the lamp body, wherein the receiving host is configured to have at least one of the narrow-band communication frequency bands for receiving and The signal matched with the narrow frequency communication frequency band enables the lamp body to be lit for illumination in response to the signal matched with the narrow frequency communication frequency band.
- the transmitting host of the host is also used to be controlled to switch to another narrow-band communication frequency band to transmit a signal matching the narrow-band communication frequency band, suitable When being received by a receiving host having the narrow-band communication frequency band, another lamp body is lit for illumination in response to a signal matching the narrow-band communication frequency band, wherein the communication frequencies of different narrow-band communication frequency bands are different .
- the signal that matches the corresponding narrow-band communication frequency band transmitted by the transmitting host is also suitable for being received by a receiving slave having the narrow-band communication frequency band, so that the The slave induction lamp communicably connected to the slave can be lit for illumination in response to a signal matching the narrow frequency communication frequency band.
- the present invention also provides a lighting device, including:
- a slave machine wherein the slave machine is communicably connected with the lamp body, and the slave machine is set to have a preset narrow-band communication frequency band for receiving and matching the preset narrow-band communication frequency band Wherein the lamp body is used to be lit for illumination in response to the signal matching the preset narrow-band communication frequency band.
- the slave device also uses a narrow-band communication frequency band that is different from the preset narrow-band communication frequency band, so as to be able to receive and communicate with the preset narrow-band communication frequency band and the other
- the signal matching the narrow-band communication frequency band of the preset narrow-band communication frequency band wherein the lamp body is used to respond to the preset narrow-band communication frequency band and the narrow-band communication frequency band different from the preset narrow-band communication frequency band
- the signal matching the communication frequency band is lit for illumination.
- FIG. 1 is a schematic flowchart of a multi-channel narrowband communication method according to an embodiment of the present invention.
- FIG. 2 is a schematic block diagram of a multi-channel narrowband communication system according to an embodiment of the present invention.
- FIG. 3A shows a schematic diagram of a first application scenario of the multi-channel narrowband communication system according to the foregoing embodiment of the present invention.
- Fig. 3B shows a communication schematic diagram of the multi-channel narrowband communication system in the above-mentioned first application scenario according to the present invention.
- FIG. 4A shows a schematic diagram of a second application scenario of the multi-channel narrowband communication system according to the foregoing embodiment of the present invention.
- FIG. 4B shows a communication schematic diagram of the multi-channel narrowband communication system in the above second application scenario according to the present invention.
- FIG. 5A shows a schematic diagram of a third application scenario of the multi-channel narrowband communication system according to the foregoing embodiment of the present invention.
- FIG. 5B shows a communication schematic diagram of the multi-channel narrowband communication system in the third application scenario according to the present invention.
- FIG. 6A shows a schematic diagram of the first situation of the fourth application scenario of the multi-channel narrowband communication system according to the foregoing embodiment of the present invention.
- FIG. 6B shows a communication schematic diagram of the multi-channel narrowband communication system according to the first situation of the above-mentioned fourth application scenario of the present invention.
- FIG. 6C shows a schematic diagram of a second situation of the fourth application scenario of the multi-channel narrowband communication system according to the foregoing embodiment of the present invention.
- FIG. 6D shows a communication schematic diagram of the multi-channel narrowband communication system according to the second situation of the above-mentioned fourth application scenario of the present invention.
- Fig. 6E shows a schematic diagram of a third situation of the fourth application scenario of the multi-channel narrowband communication system according to the foregoing embodiment of the present invention.
- FIG. 6F shows a communication schematic diagram of the multi-channel narrowband communication system according to the third situation of the fourth application scenario of the present invention.
- Fig. 7A shows an example of a lighting system according to an embodiment of the present invention.
- Fig. 7B shows another example of a lighting system according to an embodiment of the present invention.
- the term "a” in the claims and specification should be understood as “one or more”, that is, in one embodiment, the number of an element may be one, and in another embodiment, the number of the element Can be multiple. Unless it is clearly stated in the disclosure of the present invention that the number of the element is only one, the term “one” cannot be understood as unique or singular, and the term “one” cannot be understood as a limitation on the number.
- a multi-channel narrowband communication method according to an embodiment of the present invention is illustrated to solve the problem of data congestion or data not being received in the current communication method, that is, to solve the current communication
- the method has the problem of co-frequency communication interference.
- the multi-channel narrowband communication method includes the steps:
- the multi-channel narrowband communication method includes the steps:
- S110 Divide a communication frequency band into at least two narrow-band communication frequency bands, where the communication frequencies of each narrow-band communication frequency band are different from each other, so that signals can communicate without interference in the same narrow-band communication frequency band;
- S120 Switch one of the narrowband communication frequency bands to another narrowband communication frequency band through frequency hopping technology, so that signals can communicate without interference between different narrowband communication frequency bands.
- each of the narrowband communication frequency bands has a pre-set communication frequency range, which is equivalent to establishing multiple different high-speed channels, and there will be no communication conflicts or co-frequency interference problems.
- the communication technology of the narrow-band communication frequency band can also reduce the interference to other devices and achieve the goal of not interfering with each other.
- the communication frequency range of the communication frequency band can also be defined as a low-rate wireless personal area network LR-WPSN such as the United States 915MHZ (that is, the bandwidth is 896-960MHZ), and can also be defined as 2.4G frequency band or 5G Frequency band and so on.
- each of the narrowband communication frequency bands can represent signals of different communication frequencies, and the transmission of signals of different communication frequencies is unique, in other words, in the same narrowband communication Only devices on a frequency band can communicate with each other, thereby preventing interference from devices on other frequency bands. Therefore, through the multi-channel narrowband communication method of the present invention, one-to-one transmission and transmission of target signals can be realized, and the uniqueness and accuracy of information communication can be improved.
- the present invention uses the channel switching technology to change the communication frequency band of the transmitter from One of the set narrow-band communication frequency bands is switched to another narrow-band communication frequency band, so that the transmitter transmits a signal matching the other narrow-band communication frequency band, and the receiver It can only receive signals that match the narrow-band communication frequency band set by itself, thereby realizing interference-free communication between different narrow-band communication frequency bands.
- first set to narrowband communication frequency band A to load the signal to be sent wait for the transmission to be completed, then switch to the set narrowband communication frequency band B to load the signal to be sent, and then wait for the transmission to be completed .
- the step S120 of the multi-channel narrowband communication method includes the steps:
- S122 After the transmission of the first channel signal is completed, switch to the second narrowband communication frequency band to load and transmit the second channel signal, wherein the communication frequency of the first narrowband communication frequency band is different from that of the first narrowband communication frequency band. 2. The communication frequency of the narrowband communication band.
- the signal can only be transmitted by a transmitter that is previously set or switched to the matching narrow-band communication frequency band; and the signal can only be transmitted by the narrow-band communication band that is previously set to match.
- the receiver of the communication frequency band receives. That is to say, the first (or second) signal can only be transmitted by a transmitter that is previously set to or switched to the first (or second) narrowband communication frequency band; and the first (or second) signal 2) The signal can only be received by the receiver that is set to the first (or second) narrowband communication frequency band in advance.
- the transmitter when the transmitter is set to the first narrowband communication frequency band in advance, or the transmitter is controlled to switch to the first narrowband communication frequency band, the transmitter can load and transmit The first channel signal; when the receiver is previously set to the first narrowband communication frequency band, the receiver can receive the first channel signal to ensure interference-free transmission of the signal. That is to say, in this example of the present invention, no channel switching occurs in the receiver.
- the receiver when the receiver pre-sets not the first narrow-band communication frequency band, the receiver can also be controlled to switch to the first narrow-band communication frequency band. Then the first channel signal is received.
- the step S120 may further include the steps:
- the number of the narrow-band communication frequency bands is at least two, and is not limited by the specific number, wherein the communication frequency of each narrow-band communication frequency band is different from each other.
- the communication frequencies of the different narrowband communication frequency bands are not adjacent to each other, so as to further reduce the probability of mutual interference between channel signals of the different narrowband communication frequency bands.
- the second narrow-band communication frequency band will not be automatically restored to the first narrow-band communication frequency band. It is directly switched from the second narrowband communication frequency band to the third narrowband communication frequency band, and waiting to send the third channel signal. By analogy, it will not jump back to the first narrowband communication frequency band until all the set narrowband communication frequency bands are skipped and the signal is sent. In other words, after the multiple narrowband communication frequency bands have all sent signals, it will jump back to the first narrowband communication frequency band (that is, only one channel switching reset is required).
- the step S120 may further include the step of switching from the second narrowband communication frequency band to the first narrowband communication after the second channel signal transmission is completed. And then switch from the first narrowband communication frequency band to the set third narrowband communication frequency band, and wait to send the third channel signal, wherein the communication frequency of the third narrowband communication frequency band is the same as the The communication frequencies of the first and second narrowband communication frequency bands are different.
- the second narrowband communication frequency band is first switched back to the first narrowband communication frequency band, and then the second narrowband communication frequency band is switched back to the first narrowband communication frequency band.
- a narrowband communication frequency band is switched to the third narrowband communication frequency band, and the third channel signal is waited for.
- the first narrowband communication frequency band needs to be switched (that is, multiple channel switching resets are required) until all narrowband communication frequency bands have finished sending signals.
- the number of the channel signals in the same narrowband communication frequency band is not limited.
- the first channel signals sent in the step S121 have different Therefore, only a receiver that matches the narrowband communication frequency band can receive the first channel signal with a different code address, and load the corresponding code address when the corresponding code address matches the receiver
- the first channel signal therefore, the transmission destination of the channel signals with different coded addresses in the same narrowband communication frequency band is unique, so that the transmission between the channel signals with different coded addresses will not be mutually exclusive. Interference, thereby improving the reliability of information transmission, and at the same time increasing the communication volume of each narrow-band communication frequency band, which is conducive to improving communication efficiency, is conducive to packet communication, and facilitates accurate batch control.
- channel signals are encoded information with encoded guide information, keys, address information, control commands, and check information.
- the understanding of the encoded address of the channel signal should be that the encoded information can be The coded information of the control instruction and the check information is loaded by the corresponding receiver, that is, the coded address is one or more of the boot information, key, and address information in the coded information Combination, the present invention does not limit this. That is to say, the different channel signals in the same narrowband communication frequency band are channel signals with different encoding addresses, and the control command information of the channel signal is not restricted, and the different narrowband communication frequency bands are not restricted.
- the encoding addresses and control instructions of the channel signals that is, the encoding addresses and/or control instructions of the channel signals of different narrowband communication frequency bands may be the same or different, and the present invention does not limit this.
- the multi-channel narrowband communication system 1 includes at least one first host 11, at least one second host 12, at least one first receiving slave 21, and at least one second receiving slave 22 .
- Each of the first hosts 11 includes a first transmitting host 111, wherein the first transmitting host 111 is set to have a first narrow-band communication frequency band, and is used to be triggered to transmit data that is compatible with the first narrow-band communication frequency band. Matched first channel signal.
- Each of the second hosts 12 includes a second transmitting host 121, wherein the second transmitting host 121 is set to have a second narrow-band communication frequency band, and is used to be triggered to transmit the same as the second narrow-band communication frequency band.
- a matched second channel signal wherein the communication frequency of the second narrowband communication frequency band is different from the communication frequency of the first narrowband communication frequency band, that is, the frequency band of the first channel signal is different from The frequency band where the second channel signal is located.
- Each of the first receiving slaves 21 is set to have the first narrow-band communication frequency band for receiving the first channel signal matching the first narrow-band communication frequency band.
- Each second receiving slave 22 is configured to have the second narrow-band communication frequency band for receiving the second channel signal matching the second narrow-band communication frequency band.
- the first receiving slave 21 can only receive the first channel signal from the first host 11 because it is set to the first narrowband communication frequency band; likewise, the second receiving slave 21
- the device 22 can only receive the second channel signal from the second host 12 because it is set to the second narrowband communication frequency band. That is, the first receiving slave 21 will not receive the second channel signal from the second host 12, and similarly, the second receiving slave 22 will not receive the signal from the first host. 11, so as to avoid the problem of communication conflict or co-frequency interference between the master and the slave, so as to achieve high-speed, interference-free communication in the same narrow-band communication frequency band.
- a certain communication frequency band is divided into at least two narrow frequency communication frequency bands (such as the first narrow frequency communication frequency band and the second narrow frequency communication frequency band), and the communication frequencies of each narrow frequency communication frequency band are mutually connected. Is different, so that the communication frequency of the first narrowband communication frequency band is different from the communication frequency of the second narrowband communication frequency band, that is, the communication frequency range of the first narrowband communication frequency band is the same as that of the second narrowband communication frequency band.
- the communication frequency ranges of the frequency bands neither overlap nor cross, so as to avoid mutual interference or influence of the first channel signal and the second channel signal during transmission.
- the communication frequency of the first narrow-band communication frequency band may be greater than or equal to 863 MHz and less than 863.1875 MHz; the communication frequency of the second narrow-band communication frequency band may be greater than or equal to 863.1875 MHz and less than 863.375 MHz.
- the multi-channel narrowband communication system 1 may also include at least one third host 13 and at least one third receiving slave 23.
- Each of the third hosts 13 includes a third transmitting host 131, wherein the third transmitting host 131 is set to have a third narrow-band communication frequency band, and is used to be triggered to transmit data that is equivalent to the third narrow-band communication frequency band.
- the matched third channel signal wherein the communication frequency of the third narrowband communication frequency band is different from the communication frequencies of the first and second narrowband communication frequency bands.
- Each of the third receiving slaves 23 is set to have the third narrow-band communication frequency band for receiving the third channel signal matching the third narrow-band communication frequency band, so as to have the same narrow-band communication frequency band.
- the communication between the master and the slave in the communication frequency band can communicate without interference, which effectively avoids communication conflict or communication interference between the master and the slave with different narrow frequency communication frequency bands.
- the three narrow-band communication frequency bands of the first narrow-band communication frequency band, the second narrow-band communication frequency band, and the third narrow-band communication frequency band are Examples are given to illustrate the advantages and features of the multi-channel narrow-band communication system 1 of the present invention, but the multi-channel narrow-band communication system 1 is not limited to these three narrow-band communication frequency bands.
- the multi-channel narrowband communication system 1 may also have a fourth, fifth, and sixth narrowband communication frequency bands, that is, the multi-channel narrowband communication system 1 may include narrowband communication frequency bands.
- the number can be more than three.
- the communication frequencies of the first narrowband communication frequency band, the second narrowband communication frequency band, and the third narrowband communication frequency band may be continuous or discontinuous, which is not further limited by the present invention.
- the first host 11 may also include a first receiving host 112, wherein the first receiving The host 112 is configured to have the first narrowband communication frequency band for receiving first channel signals with the first narrowband communication frequency band;
- the second host 12 may also include a second receiving host 122, wherein The second receiving host 122 is configured to have the second narrowband communication frequency band for receiving a second channel signal with the second narrowband communication frequency band;
- the third host 13 may also include a third The receiving host 132, wherein the third receiving host 132 is set to have the third narrowband communication frequency band for receiving a third channel signal with the third narrowband communication frequency band.
- the first transmitting host 111 of the first host 11 when triggered to transmit the first channel signal (or the second channel signal, or the third channel signal), the first receiving host 112 (or The second receiving host 122 of the second host 12 or the third receiving host 132 of the third host 13 can also receive the first channel signal (or the second channel signal, Or the third channel signal) to perform interference-free communication between hosts with the same narrowband communication channel.
- the multi-channel narrowband communication system 1 of the present invention can be applied to technical fields such as the lighting field, the security field, etc., to ensure the self-management of the lighting system or the alarm system and save energy.
- the first, second and third hosts 11, 12, and 13 of the multi-channel narrowband communication system 1 are adapted to be communicably connected to the main induction lamps of the lighting system
- the first, second and third receiving slaves 21, 22, 23 of the multi-channel narrowband communication system 1 are adapted to be communicably connected to the slave induction lamps of the lighting system.
- the main induction lamp of the lighting system can actively sense the surrounding moving objects or people, so that when the surrounding moving objects or people are sensed, the main induction lamp can automatically adjust, such as being lit and/or Dimming control, and triggering the transmitting hosts of the first, second and third hosts 11, 12, 13 to emit corresponding signals.
- the slave induction lamps of the lighting system cannot actively sense moving objects or people around, when the first, second and third receiving slaves 21, 22, 23 receive corresponding signals, the The slave induction lamp of the lighting system will automatically light up in response to the signal received by the receiving slave, thereby realizing the automatic management function of the lighting system.
- the main induction lamp of the lighting system can be, but not limited to, be implemented as a lamp equipped with microwave detectors, so as to sense objects or people moving around through the microwave detectors; and the illumination
- the slave induction lamps of the system are implemented as lamps without microwave detectors in order to reduce the cost of the entire lighting system.
- the main induction lamp of the lighting system can also be implemented as a lamp equipped with induction devices such as infrared detectors, sound detectors, image detectors, and the like.
- the first application scenario of the multi-channel narrow-band communication system according to the above-mentioned embodiment of the present invention is clarified, which shows that the multi-channel narrow-band communication system is in broadcast mode.
- the application of the mode that is, the multi-channel narrowband communication system needs to perform broadcast operations, and only communicate without interference in the same narrowband communication frequency band.
- the first application scenario takes the application scenario of three-story corridor lighting as an example, and the main induction lamp 31 is provided at the entrance (or doorway) of each corridor for induction People or moving objects in and out of the entrance and exit, and the slave induction lamps 32 are provided in other positions of each corridor (ie, non-entrance positions).
- the first host 11 communicatively connected with the main induction lamp 31 is provided in the corridor on the first floor (for example, the first host 11 is provided at the main induction lamp 31 in the corridor on the first floor); And the first receiving slave 21 communicatively connected with the slave induction lamp 32 is provided in the corridor on the first floor (as in the corridor on the first floor, the first receiving slave 21 is provided at the slave induction lamp 32). Slave 21).
- the second host 12 is installed at all the main induction lamps 31 in the corridor on the second floor; and the second receiving slave 22 is installed at all the slave induction lamps 32 in the corridor on the second floor.
- the third host 13 is installed at all the main induction lamps 31 in the corridor on the third floor; and the third receiving slave 23 is installed at all the slave induction lamps 32 in the corridor on the third floor. .
- the main induction lamp 31 in the corridor on the first floor senses a moving person or object
- the main induction lamp 31 is lit and is located at the main induction lamp 31
- the first transmitting host 111 of the first host 11 is triggered to transmit the first channel signal.
- the first receiving slave 21 and the first receiving host 112 in the first-floor corridor receive the first channel signal because they have the first narrow-band communication frequency band, so that the first-floor corridor All the slave induction lamps 32 and the other master induction lamps 31 are lit in response to the first channel signal.
- the second and third receiving slaves 22, 23 and the second and third receiving hosts 112, 113 in the corridors of the second and third floors have the second and third narrow
- the first channel signal cannot be received in the second and third floor corridors, so that all the slave induction lamps 32 and other master induction lamps 31 in the corridors of the second and third floors will not be lit to avoid the The lamps in the corridor on the third floor are interfered by the communication in the corridor on the first floor, which helps to achieve the purpose of automatic management of the lighting system and energy saving.
- the master and slave in the corridor on each floor transmit signals in the same narrow-band communication frequency band
- the master and slave in the corridors on different floors transmit signals in different narrow-band communication frequency bands to avoid different levels of communication.
- the first reflection host 111 may transmit the first channel signal after the main induction lamp 31 is lit, or The first reflection host 111 may also transmit the first channel signal before the main induction lamp 31 is turned on, which is not repeated in the present invention.
- the first transmitting host 111 of the first host 11 can also be controlled to switch to the second Two narrow-band communication frequency bands are used to transmit a second channel signal matching the second narrow-band communication frequency band, so that the second receiving host 122 of the second host 12 can receive signals from the first host 11
- the second channel signal to achieve interference-free communication between the first host 11 and the second host 12, that is, to achieve interference-free communication between hosts with different narrowband communication frequency bands.
- the first emission host of the first host 11 connected to the main induction lamp 31 111 first transmits the first channel signal to be received by the first receiving slave 21, so that the slave induction lamp 32 connected to the first receiving slave 21 is lit; and after transmitting the first channel After the signal is received, the first transmitting host 111 switches to the second narrowband communication frequency band, and transmits the second channel signal to be received by the second receiving host 122, so as to communicate with the second receiving host 122 The connected main induction lamp 31 is lit.
- the second transmitting host 121 of the second host 12 can be controlled to switch to the third narrow-band communication frequency band for transmitting a third channel matching the third narrow-band communication frequency band Signal so that the third receiving host 132 of the third host 13 can receive the third channel signal from the second host 12; or the third transmitting host 131 of the third host 13 can Is controlled to switch to the second narrowband communication frequency band for transmitting a second channel signal matching the second narrowband communication frequency band, so that the second receiving host 122 of the second host 12 can The second channel signal from the third host 13 is received, thereby achieving interference-free communication between hosts having different narrowband communication frequency bands.
- FIGS. 4A and 4B the second application scenario of the multi-channel narrowband communication system according to the above-mentioned embodiment of the present invention is illustrated, which shows that the multi-channel narrowband communication system is in The application of the channel switching mode, that is, the multi-channel narrowband communication system needs to perform channel switching operations to communicate without interference in different narrowband communication frequency bands.
- the second application scenario takes the application scenario of stairwell lighting as an example.
- the main sensing lamps 31 are provided in each stairwell to sense people walking in the stairwell. Or moving objects.
- a first host 11 communicably connected with the main induction lamp 31 is arranged in the first floor stairwell; a second host 12 communicably connected with the main induction lamp 31 is arranged in the second floor stairwell;
- a third host 13 communicably connected with the main induction lamp 31 is provided in the third floor stairwell.
- the first The first transmitting host 111 of the host 11 is controlled to switch to the second narrowband communication frequency band to transmit the second channel signal; then the second host 12 located in the second floor stairwell The second receiving host 122 will receive the second channel signal, so that the main induction lamp 31 located in the second floor stairwell will be lit, so as to realize when a person is in the first floor stairwell
- the lamps located in the second floor stairwell are lighted up in advance to provide lighting for people in advance.
- the second host 12 of the second host is controlled to switch to the third narrowband communication frequency band to transmit the third channel signal; then the third receiving host of the third host 13 located in the third floor stairwell 132 will receive the third channel signal, so that the main induction lamp 31 located in the third floor stairwell is lit in advance, so as to provide intelligent lighting services.
- the first The second transmitting host 121 of the second host 12 can also be controlled to switch to the first narrow-band communication frequency band to transmit the first channel signal, so that the second transmitter located in the first floor stairwell
- the first receiving host 112 of a host 11 receives the first channel signal to light up the lamps located in the first floor stairwell in advance.
- the second transmitting host 121 of the second host 12 can first switch to the third narrowband communication frequency band to transmit the third channel signal, and then switch to the first narrowband communication frequency band to transmit The first channel signal enables the second host 12 to communicate with the third host 13 and the first host 11 respectively without interference.
- the main induction lamp 31 of the lighting system of the present invention can work in a low-brightness mode and a high-brightness mode.
- the main induction lamp 31 works in the low-brightness mode, the main induction lamp 31
- the brightness of the light emitted by the lamp 31 is relatively low, so as to consume less power; and when the main induction lamp 32 is working in the high-brightness mode, the brightness of the light emitted by the main induction lamp 31 is relatively high, so as to consume less power.
- the low-brightness mode of the main induction lamp 31 means that when another channel signal is received, it will enter a low-brightness state to achieve the effect of early lighting.
- the high-brightness mode of the main induction lamp 31 means that when another channel signal is received, it will enter a high-brightness state to improve the lighting effect.
- the main induction lamp 31 when the main induction lamp 31 senses a moving person or object, regardless of whether the receiving host connected to the main induction lamp 31 receives a channel signal, the main induction lamp 31 will be lit to It works in high-brightness mode to provide better lighting conditions; and when the main induction lamp 31 does not sense moving people or objects, if the receiving host connected to the main induction lamp 31 receives the corresponding channel signal, Then the main induction lamp 31 will be lit to work in a low-brightness mode to save resources; if the receiving host connected to the main induction lamp 31 does not receive the corresponding channel signal, the main induction lamp 31 Will not be lit.
- both the master induction lamp 31 and the slave induction lamp 32 of the lighting system can be turned off automatically after being lit for a period of time (such as 1 minute, etc.), so as to save energy.
- the main induction lamp 31 of the lighting system is lit to first work in the high brightness mode for a period of time (such as 30 seconds, etc.), and then continue to work in the low brightness mode for a period of time It will go out after a time (such as 30 seconds, etc.) in order to find a reasonable balance between providing better lighting conditions and saving resources.
- the first transmitting host 111 of the first host 11 of the multi-channel narrowband communication system 1 is triggered to transmit the first channel signal before switching to the second In addition to the narrow-band communication frequency band for transmitting the second channel signal, it can also switch to the third narrow-band communication frequency band to transmit the third channel signal after transmitting the second channel signal, so that the second host 12
- the second receiving host 122 and the third receiving host 132 of the third host 13 can respectively receive the second channel signal and the third channel signal from the first host 11 to There is interference-free communication between the first host 11 and the second host 12 and the third host 13.
- the second transmitting host 121 of the second host 12 can also switch to the first narrowband communication frequency band to transmit the first channel signal, and switch to the third narrowband communication frequency band to transmit the first channel signal.
- the third transmitting host 131 of the third host 13 can also switch to the first narrowband communication frequency band to transmit the first channel signal, and switch to the second narrowband communication frequency band to transmit The second channel signal realizes interference-free communication between multiple hosts with different narrowband communication frequency bands.
- the first receiving slave 21 can receive the first channel signal because it has the first narrow-band communication frequency band, but it is different from the first receiving slave 21.
- the slave induction lamp 32 connected to the machine 21 will not respond to the first channel signal, that is, the slave induction lamp 32 will not be lit because the first receiving slave machine 21 receives the first channel signal.
- the slave induction lamp 32 connected to the first receiving slave 21 will only be lit in response to the first channel signal, and will not be lit in response to the first channel signal. In order to prevent the slave induction lamp 32 from being turned on accidentally or unintentionally, it helps to save energy.
- the second and third receiving slaves 22, 23 can receive the second and third channel signals, respectively, the slave induction lamps connected to the second and third receiving slaves 22, 23 32 will not be illuminated in response to the second and third channel signals.
- the slave induction lamps 32 connected to the first, second, and third receiving slaves 21, 22, 23 will respond to the first, second, and third channels, respectively. In addition to the signal being lit, it will also be lit in response to the first, second and third channel signals respectively to achieve interference-free communication between the master and slaves with different narrowband communication frequency bands.
- FIGS. 5A and 5B the third application scenario of the multi-channel narrowband communication system according to the above-mentioned embodiment of the present invention is illustrated, which shows that the multi-channel narrowband communication system is in The application of the mixed mode, that is, the multi-channel narrowband communication system requires both broadcast operations and channel switching operations to communicate without interference in the same and different narrowband communication frequency bands.
- the third application scenario takes the application scenario of underground parking lot lighting as an example, where the underground parking lot is divided into area A, area B, and area C, and area A and area B And the C area is distributed in a T shape.
- the area A, area B, and area C are all provided with the master induction lamp 31 and the slave induction lamp 32, which are arranged as shown in FIG. 5A.
- zone A the host communicably connected with the main induction lamp 31 is the first host 11, and the slave communicably connected with the slave induction lamp 32 is the first receiving slave 21 ;
- zone B the host communicatively connected with the master induction lamp 31 is the second host 12, and the slave communicably connected with the slave induction lamp 32 is the second receiving slave 22;
- zone C the host communicatively connected with the master induction lamp 31 is the third host 13, and the slave communicably connected with the slave induction lamp 32 is the third receiving slave ⁇ 23.
- the main induction lamp 31 located in zone A senses that a vehicle or a person moves in zone A to be lit
- the main induction lamp 31 connected to zone A The first transmitting host 111 of the first host 11 will be triggered to transmit the first channel signal, so that the first receiving host 112 and the first receiving slave 21 of the other first hosts 11 can
- the first channel signal is received to light up the other main induction lamps 31 connected to the first host 111 and the slave induction lamps 32 connected to the first receiving slave 21, that is, they are located in the A zone Both the master induction lamp 31 and the slave induction lamp 32 are lit.
- the first transmitting host 111 of the first host 11 is controlled to switch to the second narrow-band communication frequency band, and transmit the second channel signal so that the The second receiving host 122 of the second host 12 receives the second channel signal to light up the main induction lamp 31 connected to the second host 12, that is, the main induction lamp 31 located in the zone B Is lit.
- the first transmitting host 111 of the first host 11 is controlled to switch to the third narrowband communication frequency band, and the third channel signal is transmitted so that the The third receiving host 132 of the third host 13 receives the third channel signal to light up the main induction lamp 31 connected to the third host 13, that is, the main induction lamp 31 located in the C zone Is lit.
- the second receiving slave 22 and the third receiving slave 23 can receive the second channel signal and the third channel signal, respectively, the slave located in the B zone
- the induction lamp 32 will not be lit in response to the second channel signal, and the slave induction lamp 32 located in the C zone will not be lit in response to the third channel signal, so as to save resources. purpose.
- the second host 12 when the main induction lamp 31 in zone B senses a vehicle or a person moving to zone B to be lit, the second host 12 connected to the main induction lamp 31 in zone B The second transmitting host 121 will be triggered to transmit a second channel signal, so that the second receiving host 122 and the second receiving slave 22 of the other second hosts 12 can both receive the first Two-channel signal to light up the other main induction lamps 31 connected to the second host 121 and the slave induction lamps 32 connected to the second receiving slave 22, that is, the main induction lamps 31 located in the zone B Both and the slave induction lamp 32 are lit.
- the second transmitting host 121 of the second host 12 is controlled to switch to the third narrowband communication frequency band, and the third channel signal is transmitted so that the The third receiving host 132 of the third host 13 receives the third channel signal to light up the main induction lamp 31 connected to the third host 13, that is, the main induction lamp 31 located in the C zone Is lit.
- the second transmitting host 121 of the second host 12 is controlled to switch to the first narrow-band communication frequency band, and transmit the first channel signal so that the The first receiving host 112 of the first host 11 receives the first channel signal to light up the main induction lamp 31 connected to the first host 11, that is, the main induction lamp 31 located in the A zone Is lit.
- the first transmitting host 111 of the first host 11 can be controlled to switch to the second narrow-band communication frequency band to transmit the second channel signal so that the The second receiving host 122 of the second host 12 receives the second channel signal to light up the main induction lamp 31 located in the B zone in advance; but the second receiving host 122 in the B zone Although the second receiving slave 22 will receive the second channel signal, it will not light up the slave induction lamp 32 located in the B zone to prevent the slave induction lamp 32 from being lit up in advance or uselessly Light up and waste energy.
- the first transmitting host 111 of the first host 11 can also be controlled to switch to the third narrow-band communication frequency band to transmit the third channel signal so that the The third receiving host 132 of the third host 13 receives the third channel signal to light up the main induction lamp 31 located in the C area in advance; but all the lights located in the C area Although the third receiving slave 23 will receive the third channel signal, it will not light up the slave induction lamp 32 located in the C zone, so as to prevent the slave induction lamp 32 from being lit up in advance or Useless lighting and waste of energy.
- FIGS. 6A to 6F the fourth application scenario of the multi-channel narrowband communication system according to the above-mentioned embodiment of the present invention is illustrated.
- FIG. 6A and FIG. 6B the first situation of the multi-channel narrowband communication system in the fourth application scenario is shown, where the fourth application scenario takes the application scenario of road lighting as an example, and the left and right sides of the road
- the highway is also provided with the main induction lamps 31, 31' which can be The first host 11 communicatively connected, and the second host 12 communicably connected to the main induction lamps 31', 31" respectively.
- the main induction lamp 31 and the main induction lamp 31' communicate through the first narrow-band communication frequency band, wherein the main induction lamp 31' and the main induction lamp 31" Communication is carried out through the second narrow-band communication frequency band.
- the main induction lamp 31 senses the movement of the car or person and is lit .
- the first transmitting host 111 of the first host 11 is triggered to send the first channel signal, wherein the first receiving host 112 of the first host 11 receives the first channel signal in advance Turn on the main induction lamp 31'.
- the second transmitter 121 of the second host 12 is triggered to send The second channel signal, wherein the second receiving host 122 of the second host 12 receives the second channel signal and lights up the main induction lamp 31" in advance.
- the first signal of the first channel cannot be communicated in the second narrowband communication frequency band
- the second channel signal cannot be communicated in the first narrowband communication frequency band.
- a narrowband communication frequency band can only be used for the transmission and reception of the first channel signal
- the second narrowband communication frequency band can only be used for the transmission and reception of the second channel signal, so the first narrowband communication
- the communication between the frequency band and the second narrowband communication frequency band does not interfere with each other. That is to say, each of the narrow-band communication frequency bands represents the transmission of signals of different communication frequencies, and the communication of signals of different communication frequencies is unique, which can improve the accuracy of data transmission while increasing the speed of data transmission.
- FIGS. 6A and 6B show the point-to-point communication mode of the multi-channel narrowband communication system.
- the main induction lamp 31 transmits signals to the main induction lamp 31' through the first narrow-band communication frequency band
- the main induction lamp 31' transmits signals to the main induction lamp 31' through the second narrow-band communication frequency band.
- the main induction lamp 31" transmits signals.
- the main induction lamp 31" may also be configured to transmit signals to the main induction lamp 31' through the first narrowband communication frequency band communication.
- the main induction lamp 31' transmits a signal to the main induction lamp 31 through the second narrow-band communication frequency band.
- the main induction lamp 31 can also communicate with the main induction lamp 31', 31" through the first narrowband communication frequency band and the second narrowband communication frequency band respectively.
- the main induction lamps 31, 31', 31" can be set to communicate with different communication frequencies, which is not limited by the present invention.
- the second case of the multi-channel narrowband communication system in the fourth application scenario is clarified.
- the road is provided with a ground that can communicate with the main induction lamps 31, 31' respectively.
- the connected first host 11 and the second host 12 respectively communicatively connected with the main induction lamps 31', 31", that is, the main induction lamps 31 and the main induction lamps 31 'Is set to communicate through the first narrowband communication frequency band, and the main induction lamp 31' and the main induction lamp 31" are set to communicate through the second narrowband communication frequency band.
- the main induction lamp 31' senses a car or a person walking
- the main induction lamp 31' is controlled to light up
- the transmitting host 111 and the second transmitting host 121 of the second host 12 are triggered simultaneously.
- the first transmitting host 111 of the first host 11 sends the first channel signal to the first receiving host 112 to light up the main induction lamp 31 in advance;
- the second host 12 The second transmitting host 121 sends the second channel signal to the second receiving host 122 to light up the main induction lamp 31" in advance.
- the main induction lamp 31' passes through The first narrowband communication frequency band and the second narrowband communication frequency band communicate with the main induction lamp 31 and the main induction lamp 31", so that the main induction lamp 31' and the main induction lamp 31' are respectively The communication between the lamp 31 and the main induction lamp 31" does not interfere with each other.
- the communication between the main induction lamp 31' and the main induction lamp 31" can also be communicated through the control mode. Specifically, when the main induction lamp 31' is lit And triggering the first transmitting host 111, the first transmitting host 111 first sends the first channel signal to the first receiving host 112 to light up the main induction lamp 31 in advance, and then, the second A transmitting host 111 is switched to the second narrowband communication frequency band to transmit the second channel signal, and the second receiving host 122 of the second host 12 receives the second channel signal and lights up in advance The induction lamp 31".
- the second receiving host 122 receives the second channel signal sent by the first transmitting host 111, the second receiving host 122 still receives The signal transmitted by the second narrow-band communication frequency band, that is, the main induction lamp 31' still uses the first narrow-band communication frequency band and the second narrow-band communication frequency band to communicate with the main The induction lamp 31 and the main induction lamp 31" communicate without interfering with each other.
- the multi-channel narrow-band communication method can realize switching between different narrow-band communication frequency bands and select different narrow-band communication frequency bands for communication, which is beneficial to expand the application range of the multi-channel narrow-band communication method and Improve communication efficiency.
- the switching sequence of the first transmitting host 111 between different narrow-band communication frequency bands can be set to facilitate the realization of a clear directional control, such as point-to-point transmission and reception. Control, point forward control, and point backward control are not limited by the present invention.
- the main induction lamp 31' can still communicate with the main induction lamp 31 through the second narrowband communication frequency band in a controlled manner. "communication.
- the main induction lamps 31, 31" on both sides of the main induction lamps 31' can be lighted up in advance, so in actual applications, there is no need to judge The moving direction of the car or person can light up the lamps in advance to facilitate actual use.
- the third case of the multi-channel narrowband communication system in the fourth application scenario is illustrated, which shows an application in which the multi-channel narrowband communication system is combined with a coded address mode.
- the road is provided with the first host 11 communicatively connected with the main induction lamps 31, 31', 31", wherein the first host 11 includes one first transmitting host 111 and two One of the first receiving hosts 112.
- the main induction lamp 31' senses a car or a person moving
- the main induction lamp 31' is controlled to light up and trigger the first emission host 111 of the first host 11, wherein the The first transmitting host 111 sends the first channel signal assigned the first address and the first channel signal assigned the second address to the two first receiving hosts 112, respectively, so as to light up the hosts in advance.
- the transfer destination of the first channel signal with different encoding addresses is unique, so that the transfer between the first channel signals with different encoding addresses will not interfere with each other, Thereby improving the reliability of information transmission, and at the same time increasing the communication volume of each narrow-band communication frequency band, which is conducive to improving communication efficiency, is conducive to packet communication, and facilitates accurate batch control.
- the first host 11 may also include multiple first receiving hosts 112.
- the first transmitting host 111 can transmit multiple One of the first channel signals assigned with different encoding addresses is sent to the corresponding first receiving host 112 to respectively control the early lighting of a plurality of the main induction lamps. Therefore, the present invention has an impact on the first receiving host.
- the number of 112 is not limited.
- the first transmitter 111 of the first host 11 can provide two or more narrow-band communication frequency bands at the same time, which is beneficial to packet communication and facilitates accurate batch control. , At the same time, it is beneficial to realize multi-directional control, such as one-shot and multiple-receive control.
- the first host 11 may also include a plurality of the first transmitting hosts 111, wherein each of the first transmitting hosts 111 is connected to each The first receiving host 112 corresponds to each other, so that when the first host 11 is triggered, each of the first transmitting hosts 111 respectively send the corresponding first channel signal to the corresponding The first receiving host 112 displays the corresponding main induction lamps in advance. It can also be understood that the first host 11 can simultaneously light up multiple main induction lamps in advance through multiple first transmitting hosts 111 and multiple first receiving hosts 112. Therefore, the present invention The number of first transmitting hosts 111 is also not limited.
- the first host 11 may also include a plurality of the first receiving hosts 112, and the plurality of the first receiving hosts 112 respectively correspond to the first transmitting host 111 so as to pass through the plurality of receiving hosts.
- the same receiving host 112 is set to have multiple narrow-band communication frequency bands to pass the receiving
- the host 112 receives signals of different channels transmitted by the multiple transmitting hosts 111 to achieve multiple transmission and one reception control, which is not limited in the present invention.
- an embodiment of the present invention further provides a lighting device configured with a master or slave of the multi-channel narrowband communication system according to the present invention. , In order to carry out interference-free communication through the multi-channel narrowband communication system, and then realize the self-management of the lighting equipment.
- the lighting device 40A is implemented as a main induction lamp, including a lamp body 41A, an induction device 42A, and a host 10, wherein the induction device 42A and the host 10 are both It is provided in the lamp body 41A, and the sensing device 42A is communicably connected with the host 10 and the lamp body 41A, respectively.
- the lamp body 41A is used for lighting.
- the sensing device 42A is used to sense people or objects moving around the lamp body 41A, and when the moving people or objects are sensed, it sends action command signals to the lamp body 41A and the host 10.
- the lamp body 41A is used to be lit for illumination in response to the action command signal from the sensing device 42A.
- the host 10 includes a transmitting host 101, wherein the transmitting host 101 is configured to have a preset narrow-band communication frequency band, and is used to respond to the action command signal from the sensing device 42A to be triggered to transmit and A signal matching the preset narrow-band communication frequency band.
- the preset narrowband communication frequency band may be implemented as the first narrowband communication frequency band, so that the host 10 is implemented as the first host 11; or the preset narrowband communication
- the frequency band may be implemented as the second narrowband communication frequency band, so that the host 10 is implemented as the second host 12; or, the preset narrowband communication frequency band may be implemented as the third narrowband communication frequency band. Frequency communication frequency band, so that the host 10 is implemented as the third host 13.
- the host 10 of the lighting device 40A may also include a receiving host 102, wherein the receiving host 102 is configured to have the preset narrow-band communication frequency band for receiving all information from other lighting devices 40A.
- the transmitting host 101 can also be controlled to switch to another A different preset narrowband communication frequency band is used to transmit channel signals that match the other preset narrowband communication frequency band; wherein the receiving host 102 can also receive the same preset narrowband communication frequency band Channel signal, so that the lamp main body 41A of the lighting device 40A is lit for illumination in response to the channel signal.
- the transmitting host 101 includes a transmitter and a control module, wherein the control module is used to control the control of the transmitter so that the transmitter can switch to a preset narrowband communication frequency band; The transmitter is used to transmit a signal matching the preset narrowband communication frequency band.
- the preset narrowband communication frequency band is the first narrowband communication frequency band
- the another different preset narrowband communication frequency band may be implemented as the second narrowband communication frequency band or
- the third narrowband communication frequency band and other different narrowband communication frequency bands are used to realize interference-free communication between different narrowband communication frequency bands.
- the lighting device 40B is implemented as a slave induction lamp, including a lamp body 41B and a slave device 20, wherein the slave device 20 is disposed on the lamp body 41B, and The slave device 20 is communicably connected with the lamp body 41B.
- the slave device 20 is configured to have a preset narrow-band communication frequency band for receiving a signal matching the preset narrow-band communication frequency band.
- the lamp body 41B is used to be lit for illumination in response to the signal received via the slave 20.
- the preset narrowband communication frequency band may be implemented as the first narrowband communication frequency band, so that the slave 20 is implemented as the first receiving slave 21; or the preset The narrow-band communication frequency band may be implemented as the second narrow-band communication frequency band, so that the slave 20 is implemented as the second receiving slave 22; or, the preset narrow-band communication frequency band may be implemented Is the third narrow-band communication frequency band, so that the slave device 20 is implemented as the third receiving slave device 23.
- the lamp body 41B will not be lit in response to the channel signal. That is to say, the lamp body 41B will not be lit due to the channel signal received by the slave device 20, which helps to realize automatic control.
- the lamp body 41B when the slave 20 of the lighting device 40A receives a corresponding channel signal, the lamp body 41B can be lit in response to the channel signal, that is, The lamp body 41B can be lit due to the channel signal received by the slave 20 to meet a specific application scenario.
- the lighting of the lamp body is not limited to the adjustment process of receiving the corresponding channel signal in the light-off state to the full-on state, and can also be understood as The adjustment process of receiving the corresponding channel signal in the light-off state to the low-bright/half-bright state, or receiving the corresponding channel signal in the low-bright/half-bright state to the full-bright state, the present invention does not limit.
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Abstract
Description
Claims (24)
- 一种多信道窄频通讯方法,其特征在于,包括步骤:A multi-channel narrowband communication method is characterized by comprising the steps:将一通讯频段分成至少两个窄频通讯频段,其中每所述窄频通讯频段的通讯频率互不相同,并于其中一所述窄频通讯频段发送至少一第一信道信号;和Dividing a communication frequency band into at least two narrowband communication frequency bands, wherein the communication frequencies of each of the narrowband communication frequency bands are different from each other, and transmitting at least one first channel signal in one of the narrowband communication frequency bands; and于对应所述第一信道信号的所述窄频通讯频段接收所述第一信道信号,以不需要协调器而藉由不同的所述窄频通讯频段区分同一所述通讯频段内的不同信道信号。Receiving the first channel signal in the narrowband communication frequency band corresponding to the first channel signal, so as to distinguish different channel signals in the same communication frequency band by different narrowband communication frequency bands without a coordinator .
- 如权利要求1所述的多信道窄频通讯方法,其中,将一所述窄频通讯频段切换至另一所述窄频通讯频段,以在不同的所述窄频通讯频段之间进行无干扰地通讯的步骤,包括步骤:5. The multi-channel narrowband communication method of claim 1, wherein one of the narrowband communication frequency bands is switched to another narrowband communication frequency band, so as to perform interference-free communication between different narrowband communication frequency bands The steps of local communication, including steps:在事先设定好的第一窄频通讯频段,载入并传输所述第一信道信号;和Load and transmit the first channel signal in the first narrowband communication frequency band set in advance; and在所述第一信道信号被传输完成之后,切换至第二窄频通讯频段,以载入并传输第二信道信号,其中所述第一窄频通讯频段的通讯频率不同于所述第二窄频通讯频段的通讯频率。After the transmission of the first channel signal is completed, switch to the second narrowband communication frequency band to load and transmit the second channel signal, wherein the communication frequency of the first narrowband communication frequency band is different from that of the second narrowband communication frequency band. The communication frequency of the communication frequency band.
- 如权利要求2所述的多信道窄频通讯方法,其中,将一所述窄频通讯频段切换至另一所述窄频通讯频段,以在不同的所述窄频通讯频段之间进行无干扰地通讯的步骤,还包括步骤:3. The multi-channel narrowband communication method of claim 2, wherein one of the narrowband communication frequency bands is switched to another narrowband communication frequency band, so that there is no interference between different narrowband communication frequency bands The steps of local communication also include the following steps:在所述第二信道信号被传输完成之后,切换至第三窄频通讯频段,以载入并传输第三信道信号,其中所述第三窄频通讯频段的通讯频率均不同于所述第一和第二窄频通讯频段的通讯频率。After the transmission of the second channel signal is completed, switch to the third narrowband communication frequency band to load and transmit the third channel signal, wherein the communication frequency of the third narrowband communication frequency band is different from that of the first And the communication frequency of the second narrowband communication band.
- 如权利要求3所述的多信道窄频通讯方法,其中所述第二窄频通讯频率和所述第三窄频通讯频率的频率区间互不相邻。3. The multi-channel narrowband communication method of claim 3, wherein the frequency intervals of the second narrowband communication frequency and the third narrowband communication frequency are not adjacent to each other.
- 如权利要求1至4中任一所述的多信道窄频通讯方法,其中,所述信号只能由事先设定成或切换至相匹配的所述窄频通讯频段的发射机发射;并且所述信号只能由事先设定成相匹配的所述窄频通讯频段的接收机接收。The multi-channel narrowband communication method according to any one of claims 1 to 4, wherein the signal can only be transmitted by a transmitter that is previously set or switched to the matching narrowband communication frequency band; and The signal can only be received by a receiver set in advance to match the narrow frequency communication frequency band.
- 如权利要求5所述的多信道窄频通讯方法,其中,不同的所述第一信道信号具有不同的编码地址。5. The multi-channel narrowband communication method of claim 5, wherein different first channel signals have different coded addresses.
- 一种多信道窄频通讯***,其特征在于,包括:A multi-channel narrowband communication system is characterized in that it comprises:至少一第一主机,其中每所述第一主机包括一第一发射主机,其中所述第一发射主机被设置以具有第一窄频通讯频段,用于被触发以发射与所述第一窄频通讯频段相匹配的第一信道信号;At least one first host, wherein each of the first hosts includes a first transmitting host, wherein the first transmitting host is set to have a first narrow-band communication frequency band for being triggered to transmit and the first narrow The first channel signal matching the frequency communication frequency band;至少一第二主机,其中每所述第二主机包括一第二发射主机,其中所述第二发射主机被设置以具有第二窄频通讯频段,用于被触发以发射与所述第二窄频通讯频段相匹配的第二信道信号,其中所述第二窄频通讯频段的通讯频率不同于所述第一窄频通讯频段的通讯频率;At least one second host, wherein each second host includes a second transmitting host, wherein the second transmitting host is configured to have a second narrow-band communication frequency band for being triggered to transmit and the second narrow A second channel signal matching the frequency communication frequency band, wherein the communication frequency of the second narrowband communication frequency band is different from the communication frequency of the first narrowband communication frequency band;至少一第一接收从机,其中每所述第一接收从机被设置以具有所述第一窄频通讯频段,用于接收所述第一信道信号;以及At least one first receiving slave, wherein each of the first receiving slaves is set to have the first narrowband communication frequency band for receiving the first channel signal; and至少一第二接收从机,其中每所述第二接收从机被设置以具有所述第二窄频通讯频段,用于接收所述第二信道信号。At least one second receiving slave, wherein each of the second receiving slaves is configured to have the second narrowband communication frequency band for receiving the second channel signal.
- 如权利要求7所述的多信道窄频通讯***,还包括至少一第三主机和至少一第三接收从机,其中每所述第三主机包括一第三发射主机,其中所述第三发射主机被设置以具有第三窄频通讯频段,用于被触发以发射与所述第三窄频通讯频段相匹配的第三信道信号,其中所述第三窄频通讯频段的通讯频率均不同于所述第一和第二窄频通讯频段的通讯频率;其中每所述第三接收从机被设置以具有所述第三窄频通讯频段,用于接收所述第三信道信号。The multi-channel narrowband communication system according to claim 7, further comprising at least one third master and at least one third receiving slave, wherein each of the third masters includes a third transmitting master, wherein the third transmitting The host is set to have a third narrowband communication frequency band for being triggered to transmit a third channel signal matching the third narrowband communication frequency band, wherein the communication frequencies of the third narrowband communication frequency band are all different from The communication frequencies of the first and second narrowband communication frequency bands; wherein each of the third receiving slaves is configured to have the third narrowband communication frequency band for receiving the third channel signal.
- 如权利要求8所述的多信道窄频通讯***,其中,每所述第一主机还包括一第一接收主机,其中所述第一接收主机被设置以具有所述第一窄频通讯频段,用于接收所述第一信道信号;每所述第二主机还包括一第二接收主机,其中所述第二接收主机被设置以具有所述第二窄频通讯频段,用于接收所述第二信道信号;每所述第三主机还包括一第三接收主机,其中所述第三接收主机被设置以具有所述第三窄频通讯频段,用于接收所述第三信道信号。8. The multi-channel narrowband communication system of claim 8, wherein each of the first hosts further comprises a first receiving host, wherein the first receiving host is configured to have the first narrowband communication frequency band, For receiving the first channel signal; each second host further includes a second receiving host, wherein the second receiving host is configured to have the second narrowband communication frequency band for receiving the first Two-channel signals; each of the third hosts further includes a third receiving host, wherein the third receiving host is configured to have the third narrowband communication frequency band for receiving the third channel signal.
- 如权利要求9所述的多信道窄频通讯***,其中,所述第一主机的所述第一发射主机被控制以切换至所述第二窄频通讯频段,用于发射与所述第二窄频通讯频段相匹配的第二信道信号;其中所述第二主机的所述第二接收主机还用于接收所述第二信道信号。The multi-channel narrowband communication system according to claim 9, wherein the first transmitting host of the first host is controlled to switch to the second narrowband communication frequency band for transmitting and A second channel signal matching the narrowband communication frequency band; wherein the second receiving host of the second host is also used to receive the second channel signal.
- 如权利要求10所述的多信道窄频通讯***,其中,所述第一主机的所述第一发射主机进一步被控制以切换至所述第三窄频通讯频段,用于发射与所述第三窄频通讯频段相匹配的第三信道信号;其中所述第三主机的所述第三接收主机还用于接收所述第三信道信号。The multi-channel narrowband communication system of claim 10, wherein the first transmitting host of the first host is further controlled to switch to the third narrowband communication frequency band for transmitting and A third channel signal matching the three narrowband communication frequency bands; wherein the third receiving host of the third host is also used to receive the third channel signal.
- 如权利要求8至11中任一所述的多信道窄频通讯***,其中,所述第二接收从机还用于接收所述第一信道信号和/或所述第三信道信号;其中所述第三接收从机还用于接收所述第一信道信号和/或所述第二信道信号。The multi-channel narrowband communication system according to any one of claims 8 to 11, wherein the second receiving slave is also used to receive the first channel signal and/or the third channel signal; wherein The third receiving slave is also used to receive the first channel signal and/or the second channel signal.
- 如权利要求7至11中任一所述的多信道窄频通讯***,其中,每所述第一主机适于被可通信地连接于一照明***的一主感应灯具,用于当该主感应灯具感应到运动的人或物体时,所述第一主机的所述第一发射主机用于被触发以发射所述第一信道信号。The multi-channel narrowband communication system according to any one of claims 7 to 11, wherein each of the first hosts is adapted to be communicably connected to a main induction lamp of a lighting system for acting as the main induction lamp When the lamp senses a moving person or object, the first transmitting host of the first host is used to be triggered to transmit the first channel signal.
- 如权利要求12所述的多信道窄频通讯***,其中,每所述第一主机适于被可通信地连接于一照明***的一主感应灯具,其中当该主感应灯具感应到运动的人或物体时,所述第一主机的所述第一发射主机用于被触发以发射所述第一信道信号。The multi-channel narrowband communication system of claim 12, wherein each of the first hosts is adapted to be communicably connected to a main induction lamp of a lighting system, wherein when the main induction lamp senses a moving person Or an object, the first transmitting host of the first host is used to be triggered to transmit the first channel signal.
- 如权利要求14所述的多信道窄频通讯***,其中,所述第一主机的所述第一发射主机还用于在所述第一信道信号被发射完成之后,被切换至所述第二窄频通讯频段,以发射所述第二信道信号。The multi-channel narrowband communication system of claim 14, wherein the first transmitting host of the first host is further configured to be switched to the second after the first channel signal is transmitted. Narrowband communication frequency band to transmit the second channel signal.
- 如权利要求15所述的多信道窄频通讯***,其中,当所述第一主机的 所述第一接收主机接收到所述第一信道信号时,所述第一主机还用于调控与所述第一主机可通信地连接的该主感应灯具。The multi-channel narrowband communication system of claim 15, wherein, when the first receiving host of the first host receives the first channel signal, the first host is also used to control and The main induction lamp is communicably connected to the first host.
- 如权利要求16所述的多信道窄频通讯***,其中,当所述第二主机的所述第二接收主机接收到所述第二信道信号时,所述第二主机还用于调控与所述第二主机可通信地连接的该主感应灯具。The multi-channel narrowband communication system of claim 16, wherein, when the second receiving host of the second host receives the second channel signal, the second host is also used to control and The main induction lamp is communicably connected to the second host.
- 如权利要求16所述的多信道窄频通讯***,其中,每所述第一接收从机适于被可通信地连接于该照明***的一从感应灯具,其中当所述第一接收从机接收到所述第一信道信号时,所述第一接收从机还用于调控与所述第一接收从机可通信地连接的该从感应灯具。The multi-channel narrowband communication system of claim 16, wherein each of the first receiving slaves is adapted to be communicably connected to a slave induction lamp of the lighting system, wherein when the first receiving slave When the first channel signal is received, the first receiving slave is also used to control the slave induction lamp communicably connected with the first receiving slave.
- 一种照明设备,其特征在于,包括:A lighting device, characterized in that it comprises:一灯具本体,用于发光照明;A lamp body, used for luminous lighting;一感应装置,其中所述感应装置被可通信地设置于所述灯具本体,用于感应所述灯具本体周围运动的人或物体,并在感应到该运动的人或物体时,发出动作指令信号,使得所述灯具本体响应于所述动作指令信号,被调控以进行照明;以及A sensing device, wherein the sensing device is communicably disposed on the lamp body, and is used to sense people or objects moving around the lamp body, and when the moving people or objects are sensed, an action command signal is issued , Enabling the lamp body to be adjusted for lighting in response to the action command signal; and一主机,其中所述主机包括一与所述感应装置可通信地连接的发射主机,其中所述发射主机具有至少两个窄频通讯频段并被设置以其中一所述窄频通讯频段响应于所述动作指令信号,而被触发以发射与该窄频通讯频段相的频率相匹配的信道信号。A host, wherein the host includes a transmitting host communicably connected with the sensing device, wherein the transmitting host has at least two narrow-band communication frequency bands and is configured to respond to all of the narrow-band communication frequency bands. The action command signal is triggered to transmit a channel signal matching the frequency of the narrow-band communication frequency band.
- 如权利要求19所述的照明设备,其中,所述主机还包括一与所述灯具本体可通信地连接的接收主机,其中所述接收主机被设置以具有至少一所述窄频通讯频段,用于接收与该窄频通讯频段相匹配的信号,使得所述灯具本体用于响应与该窄频通讯频段相匹配的信号而被调控以进行照明。The lighting device according to claim 19, wherein the host further comprises a receiving host communicatively connected with the lamp body, wherein the receiving host is configured to have at least one of the narrow-band communication frequency bands. By receiving a signal matching the narrow-band communication frequency band, the lamp body is used to respond to the signal matching the narrow-band communication frequency band to be regulated for lighting.
- 如权利要求20所述的照明设备,其中,所述主机的所述发射主机还用于被控制以切换至另一所述窄频通讯频段,以发射与该窄频通讯频段相匹配的信 号,适于被具有该窄频通讯频段的接收主机接收,使得另一灯具本体响应与该窄频通讯频段相匹配的信号而被调控以进行照明,其中不同的所述窄频通讯频段的通讯频率不同。22. The lighting device of claim 20, wherein the transmitting host of the host is also used to be controlled to switch to another narrow-band communication frequency band to transmit a signal matching the narrow-band communication frequency band, It is suitable for being received by a receiving host having the narrow-band communication frequency band, so that another luminaire body is regulated for lighting in response to a signal matching the narrow-band communication frequency band, wherein the communication frequencies of different narrow-band communication frequency bands are different .
- 如权利要求19至21中任一所述的照明设备,其中,经由所述发射主机发射的与相应所述窄频通讯频段相匹配的信号还适于被具有该窄频通讯频段的接收从机接收,使得与该接收从机可通信地连接的从感应灯具能够响应于与该窄频通讯频段相匹配的信号而被调控以进行照明。The lighting device according to any one of claims 19 to 21, wherein the signal matched with the corresponding narrow-band communication frequency band transmitted by the transmitting host is also suitable for being used by a receiving slave having the narrow-band communication frequency band. Receiving enables the slave induction lamp communicably connected with the receiving slave to be adjusted to perform lighting in response to a signal matching the narrow frequency communication frequency band.
- 一种照明设备,其特征在于,包括:A lighting device, characterized in that it comprises:一灯具本体,用于发光照明;和A luminaire body for luminous lighting; and一从机,其中所述从机与所述灯具本体可通信地连接,其中所述从机被设置以具有一预设窄频通讯频段,用于接收与所述预设窄频通讯频段相匹配的信号,其中所述灯具本体用于响应于所述与所述预设窄频通讯频段相匹配的信号而被调控以进行照明。A slave machine, wherein the slave machine is communicably connected with the lamp body, and the slave machine is set to have a preset narrow-band communication frequency band for receiving and matching the preset narrow-band communication frequency band , Wherein the lamp body is used for being adjusted for lighting in response to the signal matching the preset narrow-band communication frequency band.
- 如权利要求23所述的照明设备,其中,所述从机还用具有不同于所述预设窄频通讯频段的窄频通讯频段,以能够接收与所述预设窄频通讯频段和不同于所述预设窄频通讯频段的该窄频通讯频段相匹配的信号,其中所述灯具本体用于响应与所述预设窄频通讯频段和不同于所述预设窄频通讯频段的该窄频通讯频段相匹配的信号,被调控以进行照明。The lighting device according to claim 23, wherein the slave device also uses a narrow-band communication frequency band different from the preset narrow-band communication frequency band, so as to be able to receive a narrow-band communication frequency band different from the preset narrow-band communication frequency band. The signal matching the narrowband communication frequency band of the preset narrowband communication frequency band, wherein the lamp body is used to respond to the preset narrowband communication frequency band and the narrowband communication frequency band different from the preset narrowband communication frequency band. The signal matching the frequency communication frequency band is regulated for lighting.
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CN210016641U (en) * | 2019-07-22 | 2020-02-04 | 深圳迈睿智能科技有限公司 | Multi-channel narrow-band communication device and lighting equipment |
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