CN111830855A - Multi-region intelligent electrical control system - Google Patents

Abstract

The invention discloses a multi-region intelligent electric appliance control system. The multi-zone intelligent electric appliance control system comprises a first control device group, a first lamp device group, a first Bluetooth infrared control device group, a second lamp device group and a second Bluetooth infrared control device group. The mobile device provides a Bluetooth control signal to the server, and controls an electrical appliance through a second communication path of the first control device group or the second control device group and the first Bluetooth infrared control device group or the second Bluetooth infrared control device group.

Description

Multi-region intelligent electrical control system

technical field

The invention relates to an electrical appliance control system, in particular to a multi-area intelligent electrical appliance control system combining wired communication and wireless communication.

Background technique

The traditional electrical control system is limited by different wireless communication protocols, the power supply cannot be properly provided, and the electrical control in different areas cannot achieve the purpose of unified control and precise control.

Therefore, it has become an important issue in the industry to provide a multi-area intelligent electrical appliance control system combining wired communication and wireless communication.

SUMMARY OF THE INVENTION

The technical problem to be solved by the present invention is to provide a multi-area intelligent electrical appliance control system in view of the deficiencies of the prior art, characterized in that the multi-area intelligent electrical appliance control system includes: a first control device group, including a plurality of A first control device, each first control device includes a sequence control module, a Bluetooth control module and a drive module, the sequence control module of each first control device is electrically connected to each of the first control devices The Bluetooth control module of a device, wherein the plurality of first control devices are electrically connected to each other, and the sequence control module of each of the first control devices is electrically connected to all of the first control devices. The driving module; a first lighting device group disposed in a first area, the first lighting device group including a plurality of first lighting devices, each of the first lighting devices being electrically connected to the plurality of lighting devices One of the first control devices; a first Bluetooth infrared control device group, including a plurality of first Bluetooth infrared control devices, each first Bluetooth infrared control device is electrically connected to one of the plurality of first control devices One, wherein each first Bluetooth infrared control device provides a first infrared signal to control an electrical device; a second control device group includes a plurality of second control devices, the plurality of second control devices are mutually Electrically connected, each second control device includes a sequence control module, a Bluetooth control module and a drive module, the sequence control module of each second control device is electrically connected to each second control device The Bluetooth control module of , wherein the sequence control module of each of the second control devices is electrically connected to the drive module of each of the second control devices, wherein the second control device group One of the plurality of second control devices is electrically connected to one of the plurality of first control devices of the first control device group; a second lighting device group is arranged in a first control device group. Two areas, the second lighting device group includes a plurality of second lighting devices, each of the second lighting devices is electrically connected to one of the plurality of second control devices; and a second Bluetooth infrared control device The device group includes a plurality of second Bluetooth infrared control devices, each second Bluetooth infrared control device is electrically connected to one of the plurality of second control devices, wherein each second Bluetooth infrared control device provides a The second infrared signal is used to control another electrical equipment; wherein, the first control device group and the second control device group are respectively connected to a server; wherein, the first area and the second area are Different areas; wherein a mobile device provides a lighting control signal to the server, and controls at least the first lighting device through a first communication path of the first control device group or the second control device group one of the plurality of first lighting devices of the group, one of the plurality of second lighting devices of the second lighting device group, the electrical equipment or the other electrical equipment; Wherein, the mobile device provides a Bluetooth control signal to the server, through the first control device A second communication path of the configuration group or the second control device group and the first Bluetooth infrared control device group or the second Bluetooth infrared control device group are configured to control the other electrical equipment.

Preferably, the control signal is transmitted to the first control device group or the second control device group through a gateway device.

Preferably, the server communicates with the gateway device through a first communication protocol.

Preferably, the first communication protocol includes a wireless fidelity communication protocol (Wi-Fi), a Zigbee communication protocol (Zigbee), a Bluetooth communication protocol (Bluetooth), a LoRa communication protocol and a Sigfox communication protocol.

Preferably, the sequence control module of each of the first control devices is an RS485 sequence control module or an RS232 sequence control module.

Preferably, each of the first control devices is electrically connected to other first control devices using the respective sequence of control modules, and each of the second control devices utilizes the respective sequence of control modules It is electrically connected with the other second control devices, and a first Bluetooth device is communicatively connected to the Bluetooth control module of one of the plurality of first control devices or the plurality of first Bluetooth infrared control devices. one of them.

Preferably, the plurality of first Bluetooth infrared control devices of the first Bluetooth infrared control device group are provided with driving power by the plurality of first control devices that are electrically connected correspondingly.

Preferably, each of the plurality of first control devices of the first control device group has a sequence number, and the sequence number of each of the plurality of first control devices is sorted according to a first sequence, and the A plurality of first control devices sequentially transmit signals according to the first sequence, the plurality of second control devices of the second control device group respectively have a sequence number, and the respective second control devices of the plurality of second control devices have a sequence number. The sequence numbers are sorted according to a second sequence, and the plurality of second control devices sequentially transmit signals according to the second sequence.

For further understanding of the features and technical content of the present invention, please refer to the following detailed descriptions and drawings related to the present invention, however, the drawings provided are only for reference and description, not for limiting the present invention.

Description of drawings

FIG. 1 is a schematic diagram of a multi-region intelligent electrical appliance control system according to a first embodiment of the present invention.

FIG. 2 is another schematic diagram of a multi-region intelligent electrical appliance control system according to a second embodiment of the present invention.

FIG. 3 is a schematic diagram of a first control device according to an embodiment of the present invention.

FIG. 4 is a partial schematic diagram of a multi-area intelligent electrical appliance control system disposed in a first area according to an embodiment of the present invention.

FIG. 5 is another partial schematic diagram of the multi-area intelligent electrical appliance control system according to the embodiment of the present invention being arranged in the first area.

Detailed ways

The following are specific specific embodiments to illustrate the embodiments of the "lamp device" disclosed in the present invention, and those skilled in the art can understand the advantages and effects of the present invention from the content disclosed in this specification. The present invention can be implemented or applied through other different specific embodiments, and various details in this specification can also be modified and changed based on different viewpoints and applications without departing from the concept of the present invention. In addition, the drawings of the present invention are merely schematic illustrations, and are not drawn according to the actual size, and are stated in advance. The following embodiments will further describe the related technical contents of the present invention in detail, but the disclosed contents are not intended to limit the protection scope of the present invention.

It should be understood that although terms such as "first", "second", "third" and the like may be used herein to describe various components or signals, these components or signals should not be limited by these terms. These terms are primarily used to distinguish one component from another component, or one signal from another. In addition, the term "or", as used herein, should include any one or a combination of more of the associated listed items, as the case may be.

[First Embodiment]

Please refer to FIG. 1 . FIG. 1 is a schematic diagram of a multi-region intelligent electrical appliance control system according to an embodiment of the present invention. FIG. 2 is another schematic diagram of a multi-region intelligent electrical appliance control system according to an embodiment of the present invention.

In this embodiment, the multi-region intelligent electrical appliance control system 1 includes a first control device group S1 , a second control device group S2 and a third control device group S3 . The first control device group S1 , the second control device group S2 and the third control device group S3 are respectively disposed in a first area A1 , a second area A2 and a third area A3 . The first area A1, the second area A2, and the third area A3 are different areas, respectively. The number of areas can be adjusted and designed according to actual needs, which is not limited in the present invention.

In this embodiment, each control device group includes a plurality of control devices. Each control device has a sequence number. And these sequence numbers will be sorted according to a sort order. As shown in FIG. 1 , the arrangement sequence is arranged according to the sequence number of each control device. In this embodiment, these control devices are arranged in a ring. In other embodiments, the control devices may be arranged in other ways, which are not limited in the present invention. Further, these control devices sequentially transmit signals according to the arrangement order.

In this embodiment, the first control device group S1 includes a plurality of control devices S1-1 to S1-12, and the plurality of control devices S1-1 to S1-12 respectively pass through a first communication path P1 and a first communication path P1. The two communication paths P2 transmit different types of signals. The second control device group S2 includes a plurality of control devices S2-1 to S2-12, and the plurality of control devices S2-1 to S2-12 also communicate through a first communication path P1 and a second communication path P2 respectively. Transmission of different types of signals. The third control device group S3 includes a plurality of control devices S3-1 to S3-12. The plurality of control devices S3-1 to S3-12 communicate with each other through a first communication path P1 and a second communication path P2 respectively. Type of signal delivery. The number of control devices in each control device group can be adjusted and designed according to actual needs, which is not limited in the present invention.

[Second Embodiment]

Please refer to FIG. 2 . FIG. 2 is another schematic diagram of a multi-region intelligent electrical appliance control system according to a second embodiment of the present invention.

In this embodiment, the multi-region intelligent electrical appliance control system 2' includes a first control device group S1', a second control device group S2', and a third control device group S3'. In this embodiment, the first control device group S1', the second control device group S2' and the third control device group S3' are respectively arranged in a first area (not shown) and a second area (not shown) and a third area (not shown). The first area (not shown in the figure), the second area (not shown in the figure) and the third area (not shown in the figure) are different areas respectively.

In this embodiment, the first control device group S1' includes five first control devices S1-1' to S1-5'. The second control device group S2' includes five second control devices S2-1' to S2-5'. The third control device group S3' includes six third control devices S3-1' to S3-6'.

Wherein, as described in the previous embodiments, the first control devices S1-1' to S1-5' are electrically connected to each other. The second control devices S2-1' to S2-5' are electrically connected to each other. The third control devices S3-1' to S3-6' are electrically connected to each other.

In this embodiment, the multi-zone intelligent electrical appliance control system 1' further includes a first lighting device group (not shown), a second lighting device group (not shown), and a third lighting device group (not shown). not shown). The first lighting device group (not shown) includes first lighting devices T1-1' to T1-4'. The second lighting device group (not shown) includes second lighting devices T2-1' to T2-4'. The third lighting device group (not shown) includes third lighting devices T3-1' to T3-5'. In this embodiment, the first lighting devices T1-1' to T1-4', the second lighting devices T2-1' to T2-4' and the third lighting devices T3-1' to T3-5' all emit light. Diode light fixtures. However, none of the first lighting devices T1-1' to T1-4', the second lighting devices T2-1' to T2-4' and the third lighting devices T3-1' to T3-5' include any direct current. Or an AC drive circuit.

In this embodiment, the first control devices S1-1' to S1-4' are respectively electrically connected to the first lighting devices T1-1' to T1-4'. The second control devices S2-1' to S2-4' are respectively electrically connected to the second lighting devices T2-1' to T2-4'. The third control devices S3-1' to S3-5' are respectively electrically connected to the third lighting devices T3-1' to T3-5'.

That is, the first control device S1-5', the second control device S2-5' and the third control device S3-6' are not electrically connected to the lighting device. In this embodiment, each control device can be electrically connected to a lighting device, a Bluetooth infrared control module or other Bluetooth devices according to actual requirements, which is not limited in the present invention.

In this embodiment, the multi-region smart appliance control system 1' further includes a first Bluetooth infrared control device group BR1', a second Bluetooth infrared control device group BR2', and a third Bluetooth infrared control device group BR3 '. In this embodiment, the first Bluetooth infrared control device group BR1', the second Bluetooth infrared control device group BR2', and the third Bluetooth infrared control device group BR3' respectively include a first Bluetooth infrared control device BR1-1 '～BR3-1' and a second Bluetooth infrared control device BR1-2'～BR3-2'.

In this embodiment, the first Bluetooth infrared control devices BR1-1'～ of the first Bluetooth infrared control device group BR1', the second Bluetooth infrared control device group BR2', and the third Bluetooth infrared control device group BR3' BR3-1' and the second Bluetooth infrared control devices BR1-2' to BR3-2' are respectively electrically connected to the first control device S1-2', the second control device S2-2' and the third control device S3-2' . In this embodiment, the Bluetooth infrared control device is used to convert the Bluetooth control signal or the control signal into an infrared control signal after receiving the Bluetooth control signal or the control signal, so as to control the electrical equipment with the infrared receiving module.

In this embodiment, the first Bluetooth infrared control devices BR1-1' to BR3-1' and the second Bluetooth infrared control devices BR1-2' to BR3-2' can respectively provide a first infrared signal or a second infrared signal. Infrared signal to control an electrical device (not shown).

Please refer to FIG. 3 , which is a schematic diagram of a first control device according to an embodiment of the present invention. In this embodiment, only the first control device S1-1' is taken as an example, and the structures and functions of other control devices are the same as those of the first control device S1-1', which will not be repeated in the present invention.

In this embodiment, the first control device S1-1' includes a sequence control module S1-100', a Bluetooth control module S1-101' and a driving module S1-102'. The sequence control module S1-100' of the first control device S1-1' is electrically connected to the Bluetooth control module S1-101' of the first control device S1-1'. The sequence control module S1-100' of the first control device S1-1' is electrically connected to the drive module S1-102' of the first control device S1-1'. Similarly, the sequence control modules (not shown) of the first control devices S1-2' to S1-5' are electrically connected to the Bluetooth control modules (not shown) of the first control devices S1-2' to S1-5'. . The sequence control modules (not shown) of the first control devices S1-2' to S1-5' are electrically connected to the drive modules (not shown) of the first control devices S1-2' to S1-5'.

In other embodiments, only one control device may be provided with a Bluetooth control module (not shown) in the control devices in the same area, and other control devices may not be provided with a Bluetooth control module. That is, the way of signal transmission is mainly carried out by the sequence control module.

Similarly, the sequence control modules (not shown) of the second control devices S2-1' to S2-5' are electrically connected to the Bluetooth control modules (not shown) of the second control devices S2-1' to S2-5'. . The sequence control modules (not shown) of the second control devices S2-1' to S2-5' are electrically connected to the drive modules (not shown) of the second control devices S2-1' to S2-5'. The sequence control modules (not shown) of the third control devices S3-1' to S3-6' are electrically connected to the Bluetooth control modules (not shown) of the third control devices S3-1' to S3-6'. The sequence control modules (not shown) of the third control devices S3-1' to S3-6' are electrically connected to the drive modules (not shown) of the third control devices S3-1' to S3-6'.

In this embodiment, the first control device group S1', the second control device group S2' and the third control device group S3' communicate with a server 9' through a gateway device 2'.

That is, the user can transmit a control signal to the server 9' using a mobile device (not shown). The server 9' can transmit a control signal to the first control device group S1', the second control device group S2' or the third control device group S3' through the gateway device 2' to control the first lighting device T1-1 One of '-T1-4', the second lighting device T2-1'-T2-4', the third lighting device T3-1'-T3-5' and electrical equipment (not shown).

The user can also use the mobile device (not shown) to transmit a Bluetooth control signal to the first Bluetooth infrared control device BR1-1'～BR3-1' or the second Bluetooth infrared control device BR1-2'～BR3-2', Signal transmission is performed through the sequence control module of the first control device group S1', the second control device group S2' or the third control device group S3' to control the first lighting devices T1-1'-T1-4 ', one of the second lighting device T2-1'-T2-4', the third lighting device T3-1'-T3-5' and electrical equipment (not shown). That is, in this embodiment, the user can control electrical appliances across the first area (not shown), the second area (not shown) and the third area (not shown).

In this embodiment, the server 9' communicates with the gateway device 2' through a first communication protocol. In this embodiment, the server 9' may be set at the local end or at a remote area, which is not limited in the present invention.

In this embodiment, the first communication protocol includes a wireless fidelity communication protocol (Wi-Fi), a Zigbee communication protocol (Zigbee), a Bluetooth communication protocol (Bluetooth), a LoRa communication protocol and a Sigfox communication protocol, It can be adjusted and designed according to actual needs, which is not limited in the present invention.

In this embodiment, the first lighting device T1-1'-T1-4', the second lighting device T2-1'-T2-4', and the third lighting device T3-1'-T3-5' pass through the A first sequence of communication paths of the first control devices S1-1' to S1-5', the second control devices S2-1' to S2-5' and the third control devices S3-1' to S3-6' carry out signals transfer.

The first Bluetooth infrared control devices BR1-1' to BR3-1' or the second Bluetooth infrared control devices BR1-2' to BR3-2' are controlled by the first control devices S1-1' to S1-5', the first A second serial communication path of the two control devices S2-1' to S2-5' and the third control device S3-1' to S3-6' performs signal transmission. In this embodiment, the first sequence communication path and the second sequence communication path are the first control devices S1-1' to S1-5', the second control devices S2-1' to S2-5', and the third control device Different communication paths between multiple sequence control modules (not shown) of S3-1'~S3-6'. That is, in this embodiment, each first control device is electrically connected to the sequence control modules of other first control devices by using its own sequence control module. Similarly, each second control device is electrically connected to the sequence control modules of other second control devices by using its own sequence control module. Each third control device is electrically connected with the sequence control modules of other third control devices by using its own sequence control module.

In this embodiment, the sequence control of the first control devices S1-1' to S1-5', the second control devices S2-1' to S2-5' and the third control devices S3-1' to S3-6' The module can be an RS485 serial control module or an RS232 serial control module.

In this embodiment, the Bluetooth communication module of the third control device S3-6' of the third control device group S3' of the multi-region intelligent electrical appliance control system 1' is connected to a first Bluetooth device BT1' for communication. That is, the first Bluetooth device BT1' is an independent Bluetooth device. In this embodiment, the first Bluetooth device BT1' can communicate with the first Bluetooth infrared control device BR3-1' or the second Bluetooth infrared control device BR3-2' through the Bluetooth communication protocol. Similarly, if the distance between the first Bluetooth infrared control device BR3-1' and the second Bluetooth infrared control device BR3-2' is less than or equal to a predetermined wireless communication distance, the first Bluetooth infrared control device BR3-1' and the second Bluetooth infrared control device BR3-1' and Two Bluetooth infrared control devices BR3-2' can carry out wireless communication connection. If the distance between the first Bluetooth infrared control device BR3-1' and the second Bluetooth infrared control device BR3-2' is greater than the predetermined wireless communication distance, the first Bluetooth infrared control device BR3-1' and the second Bluetooth infrared control device BR3 Between -2', a wired communication connection can be performed through a second serial communication path between the serial control modules (not shown) of the third control devices S3-1' to S3-6'.

That is, if the user needs to control the electrical equipment in the first area (not shown) in the third area (not shown). Then, the mobile device can be used to send a control signal to the first Bluetooth infrared control device BR3-1' or the second Bluetooth infrared control device BR3-2' in the third area (not shown). Then, the control signal will be transmitted to the first serial communication path of the first area (not shown) through a second serial communication path between the serial control modules (not shown) of the third control devices S3-1'~S3-6' The first control device S1-5' of the control device group S1'. Next, the control signal will be transmitted to the first Bluetooth infrared control device BR1-1' or the second Bluetooth infrared control device in the first area (not shown) through the sequence control devices of the first control devices S1-1' to S1-5' The control device BR1-2' enables the first Bluetooth infrared control device BR1-1' or the second Bluetooth infrared control device BR1-2' to convert the control signal into an infrared control signal to control the corresponding electrical equipment.

In addition, in this embodiment, the first control device S1-5' of the first control device group S1', the second control device S2-5' of the second control device group S2', and the third control device group The third control device S3-6' of S3' is respectively electrically connected to a first power source (not shown), a second power source (not shown) and a third power source (not shown) to receive the first power source (not shown). The driving power required by the control device group S1', the second control device group S2' and the third control device group S3'. In this embodiment, the first control devices S1-5' of the first control device group S1' can use the sequence control module to provide driving power to the first control devices S1-1' to S1-4'. The second control devices S2-5' of the second control device group S2' can also use the sequence control module to provide driving power to the second control devices S2-1' to S2-4'. The third control devices S3-6' of the third control device group S3' can also use the sequence control module to provide driving power to the third control devices S3-1' to S3-5'.

In addition, in this embodiment, the first Bluetooth infrared control devices BR1-1' to BR3-1' or the second Bluetooth infrared control devices BR1-2' to BR3-2' are controlled by the first control device S1, respectively. -2', the first control device S1-5', the second control device S2-2', the second control device S2-5' and the third control device S3-2' provide driving power. That is, the plurality of first Bluetooth infrared control devices of the first Bluetooth infrared control device group BR' are provided with driving power by the plurality of first control devices that are electrically connected correspondingly.

Please refer to FIG. 4 and FIG. 5 . FIG. 4 is a partial schematic diagram of a multi-region intelligent electrical appliance control system disposed in the first region according to an embodiment of the present invention. FIG. 5 is another partial schematic diagram of the multi-area intelligent electrical appliance control system according to the embodiment of the present invention being arranged in the first area.

As shown in FIG. 4, in the first area, the user uses the mobile device to provide a control signal to the first Bluetooth infrared control device BR1-1' or the second Bluetooth infrared control device BR1-2' to control the electrical appliances in the first area. Devices E1-E5 are controlled. In FIG. 5, the first Bluetooth infrared control device BR1-1' or the second Bluetooth infrared control device BR1-2' communicates through the second sequence of the sequence control modules of the first control devices S1-1' to S1-5' The path SW2 performs signal transfer. In Figure 5, the first Bluetooth infrared control device BR1-1' or the second Bluetooth infrared control device BR1-2' can also perform signal transmission through a wireless communication connection.

FIG. 5 shows the first area where the control signals of the first lighting devices T1-1'-T1-5' pass through the first serial communication path of the serial control modules of the first control devices S1-1' to S1-5' Schematic diagram of SW1 making a transfer.

In this embodiment, the electrical equipment E1-E5 is an electrical appliance including an infrared control module, that is, the electrical equipment E1-E5 can receive the first Bluetooth infrared control module BR1-1' or the second Bluetooth infrared control module BR1-2 'Infrared control signal sent out for adjustment and operation.

[Advantageous effects of the embodiment]

One of the beneficial effects of the present invention is that the multi-area intelligent electrical appliance control system is equipped with a plurality of Bluetooth infrared control devices through the sequence control module and the Bluetooth control module in each control device, and transmits signals through different sequence communication paths to improve communication. Efficiency and reduce signal interference, and it can also transmit signals in a cross-regional wired or wireless manner to quickly achieve the purpose of electrical control.

The contents disclosed above are only preferred feasible embodiments of the present invention, and are not intended to limit the scope of the present invention. Therefore, any equivalent technical changes made by using the contents of the description and drawings of the present invention are included in the application of the present invention. within the scope of the patent.

Claims (8)

1. The utility model provides a multizone intelligence electrical apparatus control system which characterized in that multizone intelligence electrical apparatus control system includes:

a first control device group, comprising a plurality of first control devices, each first control device comprising a sequence control module, a bluetooth control module and a driving module, the sequence control module of each first control device being electrically connected to the bluetooth control module of each first control device, wherein the plurality of first control devices are electrically connected to each other, and the sequence control module of each first control device being electrically connected to the driving module of each first control device;

the first lamp device group is arranged in a first area and comprises a plurality of first lamp devices, and each first lamp device is electrically connected with one of the first control devices;

the first Bluetooth infrared control device group comprises a plurality of first Bluetooth infrared control devices, each first Bluetooth infrared control device is electrically connected with one of the plurality of first control devices, and each first Bluetooth infrared control device provides a first infrared signal to control an electrical appliance;

a second control device group, comprising a plurality of second control devices, wherein the plurality of second control devices are electrically connected to each other, each second control device comprises a sequence control module, a bluetooth control module and a driving module, the sequence control module of each second control device is electrically connected to the bluetooth control module of each second control device, wherein the sequence control module of each second control device is electrically connected to the driving module of each second control device, and one of the plurality of second control devices of the second control device group is electrically connected to one of the plurality of first control devices of the first control device group;

a second lighting device group disposed in a second area, the second lighting device group including a plurality of second lighting devices, each of the second lighting devices being electrically connected to one of the plurality of second control devices; and

a second bluetooth infrared control device group, including a plurality of second bluetooth infrared control devices, each of which is electrically connected to one of the plurality of second control devices, wherein each of the second bluetooth infrared control devices provides a second infrared signal to control another electrical equipment;

the first control device group and the second control device group are respectively in communication connection with a server;

wherein the first region and the second region are different regions;

wherein a mobile device provides a luminaire control signal to the server, and at least controls one of the first luminaire devices of the first luminaire device group, one of the second luminaire devices of the second luminaire device group, the electrical appliance or the other electrical appliance through a first communication path of the first control device group or the second control device group;

the mobile device provides a bluetooth control signal to the server, and controls the other electrical equipment through a second communication path of the first control device group or the second control device group and the first bluetooth infrared control device group or the second bluetooth infrared control device group.

2. The multi-zone intelligent appliance control system of claim 1, wherein the control signals are transmitted to the first group of control devices or the second group of control devices through a gateway device.

3. The multi-zone intelligent appliance control system of claim 2 wherein the server is communicatively coupled to the gateway device via a first communication protocol.

4. The multi-zone intelligent appliance control system of claim 3, wherein the first communication protocol comprises a wi-fi communication protocol, a zigbee communication protocol, a bluetooth communication protocol, a LoRa communication protocol, and a Sigfox communication protocol.

5. The multi-zone intelligent appliance control system of claim 1 wherein the sequence control module of each of the first control devices is an RS485 sequence control module or an RS232 sequence control module.

6. The multi-zone intelligent appliance control system according to claim 1, wherein each of the first control devices is electrically connected to the other first control devices by the respective sequence control module, each of the second control devices is electrically connected to the other second control devices by the respective sequence control module, and a first bluetooth device is communicatively connected to the bluetooth control module of one of the first control devices or one of the first bluetooth infrared control devices.

7. The multi-zone intelligent electrical appliance control system according to claim 1, wherein the first bluetooth infrared control devices of the first bluetooth infrared control device group are powered by the first control devices electrically connected correspondingly.

8. The multi-zone intelligent appliance control system according to claim 5, wherein the first control devices of the first control device group have a sequence number respectively, the sequence numbers of the first control devices are sequenced according to a first sequence, the first control devices transmit signals according to the first sequence, the second control devices of the second control device group have a sequence number respectively, the sequence numbers of the second control devices are sequenced according to a second sequence, and the second control devices transmit signals according to the second sequence.

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