TWI552115B - Machine-to-machine monitoring system and the method thereof - Google Patents

Description

Device-to-device monitoring system and monitoring method thereof

The invention relates to a monitoring system and a monitoring method thereof, in particular to a device monitoring device with a device-to-device interconnection interaction function and a monitoring method thereof.

With the advancement of technology and the popularity of the Internet, it has been gradually accepted that the monitoring system and monitoring mode of monitoring a live site through the network.

Please refer to FIG. 1 , which is a block diagram of a conventional monitoring system. The monitoring system 100 has a field end 10, a repeater end 30, and a user end 50. The field end 10 is a place to be monitored, and a thermostat 11 is arranged to monitor the temperature of the field end 10 and control the temperature. The relay terminal 30 is provided with a gateway device 31 and a network server 33. The user terminal 50 can be a smart device 51, such as a smart phone or a wearable electronic device. The network server 33 is connected to the home gateway 31 and the user terminal 50 via the network. The thermostat 11 is connected to the home gateway 31 via a network. Thereby, the thermostat device 11 can transmit the detected temperature information to the user terminal 50 through the relay terminal 30. Thereby, the user can receive the temperature information of the thermostat 11 from the field terminal 10 through the Internet through the Internet. If the user terminal 50 finds that there is an abnormal temperature in the field, the user can give a command to the thermostat 11 through the network server 33, and cause the constant The temperature device 11 regulates the temperature.

However, in the aforementioned conventional monitoring system 100, the thermostat 11 of the field terminal 10 can only transmit temperature information to the relay terminal 30 in a single and one-way manner, and cannot establish an interaction relationship with other devices of the field terminal 10. If the thermostat 11 is damaged and fails, the relevant temperature information cannot be transmitted to the user's hand, causing a problem of poor monitoring.

In order to solve the above problems, an object of the present invention is to provide a device-to-device monitoring system and a monitoring method thereof, which can interact and connect through a field-side device and a device, thereby enabling information to be transmitted in multiple directions, and solving the conventional field device only in a single direction. Sending information to the consumer leads to poor monitoring.

Another object of the present invention is to provide a device-to-device monitoring system and a monitoring method thereof, which can be connected to each other through a device, thereby providing a variety of application mode changes.

To achieve the above objective, the present invention provides a device-to-device monitoring system, comprising: a field end, having a monitoring device and at least one electronic device, each having: a control unit, comprising a determining module, electrically connecting and transmitting a module, a working module or/and a forwarding module, wherein the determining module is configured to select, according to at least one preset condition, a sending module, a working module or a forwarding module corresponding to the preset condition, and a sending module The group is configured to generate at least one signal command, the work module is configured to execute a work program and generate an event record information, the forwarding module is configured to forward a message to be forwarded, and a storage unit stores an identification information of the device itself; a slot server for transmitting the signal command, the event record information, the to-be-forwarded information or the identification information; The two-slot server of the monitoring device and the electronic device transmit the identification information of the electronic device to each other to form a connection between the device and the device to transmit the instructions or information to each other; At least one relay device and a remote server connected to the monitoring device or/and the electronic device and the remote server, the remote server for receiving and storing from the monitoring a device or/and an information package of the electronic device; and a user terminal coupled to the remote server for receiving the information package of the monitoring device or/and the electronic device.

Moreover, in order to achieve the above object, the present invention further provides a device-to-device monitoring system, comprising: a monitoring device and at least one electronic device, each having: a control unit, comprising a determining module, electrically connected to a transmitting module a group, a working module or/and a forwarding module, wherein the determining module is configured to select, according to at least one preset condition, a sending module, a working module or a forwarding module corresponding to the preset condition, and a sending module For generating at least one signal command, the working module is configured to execute a work program and generate an event record information, the forwarding module is configured to forward a message to be forwarded, and a storage unit is configured to store an identification information of the device; And a slot server for transmitting the signal command, the event record information, the to-be-forwarded information or the identification information; wherein the two-socket server through the monitoring device and the electronic device transmits the same to each other The information is identified to form a connection between the devices and the devices to transmit the instructions or information to each other.

In the foregoing embodiment of the present invention, the method further includes: a user end connected to the monitoring device or/and the electronic device for receiving an information package of the monitoring device or/and the electronic device.

Moreover, in order to achieve the above object, the present invention further provides a device-to-device monitoring method, comprising the steps of mutually transmitting the monitoring device and the electronic device through a monitoring device and an individual one-slot server in at least one electronic device. Identifying information, thereby causing the monitoring device And the electronic device is configured to connect the device to the device through the slot server; the monitoring device and each of the preset determining modules in the electronic device respectively select to perform a sending according to at least one preset condition. a module, a working module or a forwarding module, wherein the transmitting module is configured to generate a signal command to a target electronic device, the working module is configured to execute a working program and generate an event recording information, The forwarding module is configured to forward a message to be forwarded to another target electronic device, and the monitoring device and the electronic device are pre-designated as one of the target electronic devices; and the slot is transmitted through the monitoring device and the electronic device The server transmits the generated instructions or information to the target electronic device or the other target electronic device; and transmits a separate information package from the monitoring device or/and the electronic device to a remote device through a relay device And identifying, by the remote server, a device identity identifier in the identification information of the monitoring device or/and the electronic device, and transmitting the monitoring The counter information or / and the electronic device package to a user terminal device owns the identity identification code.

In an embodiment of the invention, the monitoring device and the electronic device respectively store a list of target electronic devices, and the monitoring device and the electronic device are each one of its target electronic devices.

In an embodiment of the invention, the at least one preset condition is selected as one of a transmission preset condition, another transmission preset condition, a working preset condition, and a forwarding preset condition, or a combination thereof. Sending a preset condition is to determine whether a live event meets a preset event situation, and if so, selecting to execute the sending module to generate the signal command, wherein the signal command is a control signal command, and another transmission preset condition is a judgment Whether it is unable to successfully transmit an instruction or a message, and if so, select to execute the sending module, and generate another signal command, which is a forwarding signal command, and the working preset condition is to determine whether a control command is received, when Judging module judgment When a control command is received, the work module is selected to execute, and the work program is executed and the event record information is generated. The forwarding preset condition is to determine whether a forwarding instruction is received. When the determining module determines that the forwarding instruction is received, the determining module executes the forwarding module, and forwards the information to be forwarded to another target electronic device according to the forwarding instruction.

In an embodiment of the present invention, the information package of the monitoring device has: the event record information generated by the monitoring device and the identification information of the monitoring device itself, the information package of the electronic device has: the electronic device The event record information and the identification information of the electronic device itself.

In an embodiment of the invention, the identification information has a device identity and a network address.

In an embodiment of the invention, the user terminal is further configured to directly end the end of the monitoring device or the electronic device after receiving the information package from the monitoring device or/and the electronic device. Connected.

In an embodiment of the invention, an end-to-end relay server is connected to the monitoring device or/and the electronic device for storing the identification information from the monitoring device or/and the electronic device, the user The terminal is further configured to connect to the end-to-end relay server after receiving the identification information from the monitoring device or the electronic device through the remote server.

In an embodiment of the invention, the monitoring device is a network camera, a carbon dioxide detector, a smoke detector, an acoustic sensor or a heat source sensor.

In an embodiment of the invention, the electronic device is a monitoring device or an action device, and the action device is a smart home appliance or an alarm device.

In an embodiment of the invention, the field end further includes a second electronic device The device has a control unit and is electrically connected to a transmitting module, a working module or/and a forwarding module, and the determining module is configured to select according to at least one preset condition. The transmitting module, the working module or the forwarding module corresponding to the preset condition, the sending module is configured to generate a signal command, and the working module is configured to execute a working program and generate an event recording information, and the forwarding module uses Forwarding a message to be forwarded; a storage unit storing an identification information of the device itself; and a slot server for transmitting the instructions or information generated by the second electronic device; wherein the monitoring device, The electronic device and the slot servers of the second electronic device mutually transmit the identification information of the device itself, thereby forming a device-to-device connection, and the three-slot server is configured to transmit the instructions or information to the device. a target electronic device, the monitoring device, the electronic device and the second electronic device are each one of its target electronic devices, and the relay device of the relay terminal is further connected to the second electronic device The remote server is further configured to receive an information package from the second electronic device at the field end.

In an embodiment of the invention, the user terminal is further configured to directly contact the monitoring device and the electronic device after receiving the information package from the monitoring device, the electronic device, or/and the second electronic device. Or / and the second electronic device is connected to the end-to-end device.

In an embodiment of the invention, the end-to-end relay server is connected to the monitoring device, the electronic device or/and the second electronic device for storing the monitoring device, the electronic device or/and the The identification information of the second electronic device is further configured to connect to the end-to-end relay server after receiving the identification information from the monitoring device, the electronic device, or/and the second electronic device line.

In an embodiment of the invention, the second electronic device is a network camera, a carbon dioxide detector, a heat source sensor, a smoke detector, an acoustic sensor, A smart home appliance or an alarm.

In an embodiment of the invention, the relay device is a smart lighting device or a network router.

In an embodiment of the invention, the remote server is a signal processing center.

In an embodiment of the invention, the user terminal is a personal smart phone, a smart watch, a smart eyeglass, a personal computer, a notebook computer, a number of assistants, a tablet computer, an alarm system or A safety center system or a combination thereof.

In an embodiment of the method of the present invention, the at least one preset condition is selected as one of a transmission preset condition, a another transmission preset condition, a work preset condition, and a forwarding preset condition or combination. Sending a preset condition to determine whether a live event meets a preset event situation, and if so, selecting to execute the sending module to generate the signal command, wherein the signal command is a control signal command, and the slot server further transmits the Controlling the signal command to the target electronic device, and transmitting a preset condition to determine whether the command or the information cannot be successfully transmitted, and if so, selecting to execute the transmitting module to generate the signal command to another target electronic device, wherein The signal command is a forward signal command, and the work preset condition determines whether a control command is received. When it is determined that the control command is received, the work module is selected to execute the work program and the event record information is generated. The forwarding preset condition determines whether a forwarding instruction is received. When it is determined that the forwarding instruction is received, the forwarding module is selected to execute, and the forwarding information is forwarded to another target electronic device according to the forwarding instruction.

In an embodiment of the method of the present invention, after receiving the information package from the monitoring device or/and the electronic device, the user terminal further includes the following steps: the user The terminal is connected end to end with the monitoring device or/and the electronic device directly or through an end-to-end relay server.

10‧‧‧ live end

100‧‧‧Monitoring system

11‧‧‧ thermostat

20‧‧‧ live end

200‧‧‧Device-to-device monitoring system

21‧‧‧Monitoring device

211‧‧‧Control unit

2111‧‧‧Judgement module

2113‧‧‧Transmission module

2115‧‧‧Working Module

2117‧‧‧ Forwarding module

213‧‧‧ storage unit

215‧‧‧Slot server

23‧‧‧Electronic devices

231‧‧‧Control unit

2311‧‧‧Judgement module

2313‧‧‧Transmission module

2315‧‧‧Working module

2317‧‧‧ Forwarding module

233‧‧‧ storage unit

235‧‧‧Slot server

25‧‧‧Second electronic device

251‧‧‧Control unit

2511‧‧‧Judgement module

2513‧‧‧Transmission module

2515‧‧‧Working module

2517‧‧‧ Forwarding module

253‧‧‧ storage unit

255‧‧‧Slot server

30‧‧‧Relay

300‧‧‧Device-to-device monitoring system

31‧‧‧Home Gateway

33‧‧‧Web server

40‧‧‧Relay

400‧‧‧Device-to-device monitoring system

41‧‧‧Relay device

43‧‧‧Remote Server

420‧‧‧ live end

421‧‧‧Webcam

423‧‧‧temperature sensor

425‧‧‧ Carbon dioxide sensor

440‧‧‧Relay

441‧‧‧Smart Street Lights

443‧‧‧City Signal Processing Center

460‧‧‧User end

461‧‧‧Smart glasses

463‧‧‧Smart Watch

50‧‧‧User side

51‧‧‧Smart devices

60‧‧‧User side

61‧‧‧Smart devices

63‧‧‧Alarm system

80‧‧‧End-to-end relay server

S0n, s0n’, s0n”‧‧‧Information package

S1n, s1n’, s1n” ‧ ‧ Pre-set conditions

S3n, s3n’, s3n”‧‧‧ signal instructions

S5n, a5n’, s5n” ‧ ‧ event record information

S7n, s7n’, s7n” ‧ ‧ y to be forwarded

S9n, s9n’, s9n” ‧ ‧ identification information

S80‧‧‧fixed address

Figure 1 is a block diagram of a conventional monitoring system.

FIG. 2 is a block diagram showing a monitoring system of a device-to-device according to an embodiment of the present invention.

Fig. 3 is an enlarged block diagram showing a portion of the field end in the embodiment according to Fig. 2.

FIG. 4 is a flow chart of a device-to-device monitoring method according to an embodiment of the present invention.

FIG. 5 is a flow chart of determining the execution of a transmitting module in an apparatus-to-device monitoring method according to an embodiment of the present invention.

FIG. 6 is a flow chart of determining the execution of another transmitting module in an apparatus-to-device monitoring method according to an embodiment of the present invention.

FIG. 7 is a flow chart of determining a execution working module in an apparatus-to-device monitoring method embodiment of the present invention.

FIG. 8 is a flow chart of determining the execution of the forwarding module in an apparatus-to-device monitoring method according to an embodiment of the present invention.

FIG. 9 is a block diagram showing a monitoring system of a device-to-device according to still another embodiment of the present invention.

Figure 10 is a schematic enlarged block diagram of a field end portion in the embodiment according to Figure 9.

11 is a schematic diagram of a monitoring system application device according to still another embodiment of the present invention. Figure.

Figure 12 is a flow chart showing the method of setting up and executing the application example shown in Figure 11 by the user.

For a better understanding of the present invention, several possible embodiments of the present invention are described below in conjunction with the drawings, in which the same symbols represent elements or steps of the steps. In addition, those skilled in the art can understand that in the process of system operation, signals such as instructions and information can be generated one after another. Therefore, the n described by the instruction symbols or information symbols s0~9n, s0~9n', s0~9n" in the figure may express different signals or commands or signals generated before and after, and the embodiments of the present invention description.

First, please refer to FIG. 2, which is a block diagram of a device-to-device monitoring system according to an embodiment of the present invention. The device-to-device monitoring system 200 has a field end 20, a repeater end 40, and a user end 60. The field end 20 is provided with a monitoring device 21 and at least one electronic device 23. The monitoring device 21 is an electronic device having a monitoring effect, such as a camera, a carbon dioxide detector, a smoke detector, an acoustic sensor or a heat source sensor. The electronic device 23 is another monitoring device 21 or an action device. The action device can be a smart home appliance or an alarm. Smart household appliances such as coffee machines, air conditioners, electric lights, and the like are common electronic devices that can be connected to a network server. The alarm device is, for example, an electronic device having an alarm function such as a buzzer or a flash display.

The relay terminal 40 is provided with at least one relay device 41 and a remote server 43. The relay device 41 serves as an electronic device having an information collection and transfer effect, for example, a smart hair Optical devices or a network router. The smart light-emitting device is a light-emitting device with a network connection function, such as a smart street light. In this embodiment, the relay device 41 is connected to the monitoring device 21, the electronic device 23, and the remote server 43 respectively. In other embodiments, the relay device 41 can also be connected to only one of the monitoring device 21 and the electronic device 23 and the remote server 43 as needed. The remote server 43 is a common network server for receiving and storing an information package s0n or/and an information package s0n' from the electronic device 23 from the monitoring device 21 of the field terminal 20, for example, a virtual or The city signal processing center of the physical server. The remote server is also not limited to a city range, such as a vendor server such as a cloud server provided or built by a manufacturer, such as the signal processing center disclosed in U.S. Patent 7,272,273.

The user terminal 60 can be a smart device 61, an alarm system 63, a security center system, or other combination connection module. The smart device 61 is a portable electronic device with a network connection function such as a personal computer, a notebook computer, a number of assistants, a tablet computer, a smart portable device, or a wearable smart device. For example, as shown in this figure, the user terminal 60 has a smart device 61 and an alarm system 63. The user terminal 60 and the remote server 43 are connected through a wired or wireless network to receive the information package s0n of the monitoring device 21 or/and the information package s0n' of the electronic device 23 through the remote server 43.

Referring to Fig. 3, Fig. 3 is an enlarged block diagram showing a portion of the field end portion in the embodiment based on Fig. 2. The monitoring device 21 and/or the electronic device 23 respectively have a control unit 211, 231, a storage unit 213, 233 and a slot server 215, 235, which are electrically connected to each other.

Specifically, the monitoring device 21 has basic functional components such as a network camera, such as a network camera, which is necessary for the monitoring function and the Internet connection. Technology, no longer repeat them. Monitoring device 21 also There is a control unit 211, a storage unit 213 and a slot server 215. The control unit 211 and the storage unit 213 can be respectively a microcontroller and a memory unit integrated in the monitoring device 21 itself, or an additional electronic component. The control unit 211 is, for example, a control chip, which is provided with a determination module 2111, and the determination module 2111 is electrically connected to one of the transmission module 2113, a working module 2115 and a forwarding module 2117. It is a combination module, that is, the determination module 2111 is electrically connected to the transmission module 2113, the working module 2115 or/and the forwarding module 2117. The determining module 2111 is configured to select, according to the at least one preset condition s1n, the sending module 2113, the working module 2113, and/or the forwarding module 2117 that execute the corresponding preset condition s1n.

The preset condition s1n is, for example, a transmission preset condition, another transmission preset condition, a work preset condition, or a forwarding preset condition. The sending module 2113 is configured to generate at least one signal command s3n. The signal command s3n is, for example, a control signal command or a forward signal command. The working module 2115 is configured to execute an own working program and a corresponding working program to generate an event recording information s5n. The forwarding module 2117 is configured to forward a to-be-forwarded information s7n, such as a control command or a message.

The storage unit 213 is, for example but not limited to, a read-only memory or a readable and writable memory, which stores an identification information s9n of the monitoring device 21 itself, and of course other signals or information. The identification information s9n contains a device identity code and/or a network address of the monitoring device 21 itself. The information package s0n generated by the monitoring device 21 includes at least the event record information s5n and the device identity identifier in the identification information s9n.

The slot server 215 is, for example, a commercially available end-to-end slot server, which serves as a connection server for the monitoring device 21 to connect to the electronic device 23, and can be used to transmit a signal command s3n, event record information s5n, Pending information s7n, identification information s9n or information package s0n The instructions or information generated by the measuring device 21 can also receive commands or information from other electronic devices, such as the electronic device 23.

The electronic device 23 can be similar to the monitoring device 21, and the electronic device 23 has a control unit 231, a storage unit 233 and a slot server, in addition to the components necessary for executing its own working program and the Internet connection function. 235. The control unit 231 and the storage unit 233 can be respectively integrated into the microcontroller and the memory unit of the original electronic device 23, or an additional electronic component. The control unit 231 is, for example, a control chip. The control unit 211 of the monitoring device 21 can be provided with a determination module 2311, a transmission module 2313, a working module 2315 and/or a forwarding module 2317. The determining module 2311 is configured to select the sending module 2313, the working module 2315 or the forwarding module 2317 that executes the corresponding preset condition s1n' according to the at least one preset condition s1n'. The sending module 2313 is configured to generate at least one signal command s3n', the working module 2315 is configured to execute the working program itself and generate an event record information s5n' corresponding to the working program, and the forwarding module 2317 is configured to forward the information to be forwarded s7n' .

The storage unit 233, such as the storage unit 213, stores at least one identification information s9n' of the electronic device 23 itself. The identification information s9n' contains a device identification code and/or a network address of the electronic device 23 itself. The information package s0n' generated by the electronic device 23 includes at least the event record information s5n' generated by the electronic device 23, and the device identity identification code in the identification information s9n'.

The slot server 235 is, for example, a commercially available end-to-end slot server for use as a connection server for the monitoring device 21 to connect to the electronic device 23, which can be used to transmit a signal command s3n', event record information s5n' The signal generated by the electronic device 23 such as the information to be forwarded s7n', the identification information s9n' or the information package s0n' may also receive signals generated by other electronic devices, such as signals or information sent by the monitoring device 21. .

The slot server 215 of the monitoring device 21 and the slot server 235 of the electronic device 23 transmit identification information s9n, s9n' to each other, thereby forming a device-to-device connection between the electronic device 21 and the monitoring device 23. After being interconnected, the slot server 215 and the slot server 235 can respectively transmit the previous commands or the previous information to a predetermined target electronic device. In the present embodiment, for the monitoring device 21, the electronic device 23 and the relay device 41 are pre-designated target electronic devices. For the electronic device 23, the monitoring device 21 and the relay device 41 are pre-designated target electronic devices.

For example, after the electronic device 21 and the monitoring device 23 are connected to each other, the signal command s3n generated by the transmitting module 2113 of the monitoring device 21 can be transmitted to the preset designated electronic device 23 through its slot server 215. The slot server 235 of the electronic device 23 receives the signal command s3n and transmits it to the control unit 231. The control unit 231 can further perform corresponding operations based on the signal command s3n, which will be described later.

With the system architecture of the device monitoring system 200 of the above embodiment, it is possible to introduce the device-to-device monitoring method as described in FIG. Referring to FIG. 2 to FIG. 4 simultaneously, after the device-to-device monitoring system 200 is started, first, in step S201, the slot server 215 of the monitoring device 21 and the slot server 235 of at least one electronic device 23 transmit each other. The identification information s9n and s9n' of the device itself, thereby forming an interactive function of the device-to-device connection between the monitoring device 21 and the electronic device 23.

Then, in step S202, the determining modules 2111 and 2311 of the monitoring device 21 and the electronic device 23 respectively select a function module corresponding to the preset condition, such as a sending module and a working mode, according to at least one preset condition set in advance. Group or forwarding module, and correspondingly generate an instruction or a message. In other words, the judging module 2111 of the monitoring device 21 is preset according to the monitoring device 21 itself. The transmission module 2113, the working module 2115 or the forwarding module 2117 corresponding to the preset condition s1n is selected to be executed by a preset condition s1n. The sending module 2113 correspondingly generates a signal command s3n for subsequent transmission to a target electronic device (which may be a pre-designated target electronic device). The work module 2115 executes its own work program and correspondingly records the generated event information s5n. The forwarding module 2117 forwards a to-be-forwarded information s7n for subsequent transmission to another target electronic device (which may be a pre-designated another target electronic device). Similarly, the electronic device 23 can also select the transmitting module 2313, the working module 2315 or the forwarding module 2317 corresponding to the preset condition s1n' according to at least one preset condition s1n' of the electronic device 23 itself.

After selecting to execute a specific function module, proceeding to step S203, the slot server 215 of the monitoring device 21 or/and the slot server 235 of the electronic device 23 will generate the generated command or/and information, for example, a signal. The instructions s3n, s3n', the signals to be forwarded s7n, s7n', or the event record information s5n, s5n' are transmitted to the pre-designated target electronic device or the other target electronic device. For example, in an embodiment, if the determining module 2111 of the monitoring device 21 determines that the transmission preset condition s1a is met, and then the transmitting module 2113 is activated, the transmitting module 2113 generates a signal command s3n. Moreover, since the monitoring device 21 presetly stores a list of target electronic devices, the electronic device 23 is one of the target electronic devices. In this embodiment, since the electronic device 23 and the monitoring device 21 have been in the regional connection state through the slot servers 235 and 215, but are not limited to the area connection, as long as they can be connected to each other, the control unit 211 The generated signal command s3n can be transmitted to the electronic device 23.

After the interaction between the monitoring device 21 and the device of the electronic device 23 and the device, finally, the monitoring device 21 or/and the electronic device 23 executes its own working program and generates an information package s0n or/and an information package s0n'. The information package s0n of the monitoring device 21 includes at least the device identification code in the identification information s9n of the monitoring device 21 itself, and the working module 2115 The event record information s5n. The information package s0n' of the electronic device 23 includes at least the device identification code in the identification information s9n' of the electronic device 23 itself and the event record information s5n' generated by the work module 2315.

In step S204, the monitoring device 21 or the electronic device 23 packages the generated information package s0n or/and the information package s0n', and transmits it to the remote server 43 of the relay terminal 40 through the relay device 41 of the relay terminal 40.

In step S205, the remote server 43 identifies the device identity identifier stored in the information package s0n or/and the information package s0n'.

Finally, in step S206, the information package s0n or/and the information package s0n' is transmitted to the user terminal 60 which also stores the device identity code.

In another embodiment, in step S205, the remote server 43 can also recognize whether the event record information s5n in the information package s0n from the monitoring device 21 and the information package s0n' from the electronic device 23 are received. The event record information s5n'. If so, it indicates that the field end 20 is likely to invade the foreign object, and the remote server 43 transmits the information package s0n and the information package s0n' to the corresponding user terminal 60.

Through the device-to-device monitoring system 200 and the monitoring method thereof, the user can receive the information package s0n, s0n' from the monitoring device 21 or/and the electronic device 23 through the remote server 43 to further pass the user. The terminal 60, for example, a smart phone, monitors the situation of the field end 20.

The following describes an embodiment of a specific judgment step process in which different preset conditions correspond to different function modules. For example, in step S202, the determining module 2111 of the monitoring device 21 is based on different preset conditions s1n, or the determining module 2311 of the electronic device 23. Based on different preset conditions s1n', function modules corresponding to different preset conditions s1n, s1n' can be selected to be executed, including the transmitting modules 2113, 2313, the working modules 2115, 2315 or the forwarding modules 2117, 2317.

The following is described in terms of the angle of the monitoring device 21, which performs the determination process of selecting different functional modules by various preset conditions as described below. Of course, the electronic device 23 can also perform the determination process of selecting different function modules by using various preset conditions as described below. First, please refer to FIG. 4 together with reference to FIG. 5, step S202 as shown in FIG. 4, wherein at least one preset condition s1n of step S202 includes a transmission preset condition, which is a determination of a scene. Whether the event conforms to a preset event situation. When the monitoring device 21 is activated, the monitoring device 21 itself receives the open control command and continues to execute its own working program (ie, the monitoring work program). Therefore, if the determining module 2111 of the monitoring device 21 determines that the monitored live event meets a preset event situation, then in step S2023a, the determining module 2111 selects to execute the transmitting module 2113, and the transmitting module 2113. A signal command s3n is generated, which is a control signal command, and can control a target electronic device to execute its own working program. The pre-designated target electronic device in this embodiment is the electronic device 23. Then, in step S203, the control signal command is transmitted to the slot server 235 of the electronic device 23 through the slot server 215. Therefore, the electronic device 23 further determines, by its own determining module 2311, whether the slot server 235 receives the control signal command according to its own preset condition s1n', and then selects and executes the function mode corresponding to the preset condition s1n'. group. On the other hand, if it is not detected that the on-site event conforms to the preset event situation, it returns to step S2021a again.

Referring again to FIG. 6, a flow chart for determining the execution of another transmitting module is shown. In step S202 as described in FIG. 4, the preset condition s1n may include another transmission preset condition, that is, whether the instruction or the information cannot be successfully transmitted. In this embodiment, it is judged whether there is no The method transmits a control signal command generated as shown in FIG. 5 to the target electronic device (here, the electronic device 23). Therefore, if the determining module 2111 determines that the control signal command cannot be transmitted, in step S2021b, the transmitting module 2113 is selected to be executed in step 2023b, and another signal command is generated, which is a forwarding signal command. Then, in step S203, the forwarding signal command is transmitted to the other target electronic device through the slot server 215. The target electronic device at this time is the non-electronic device 23, but other pre-designated electronic devices, and the forwarding signal command can be notified and controlled. The other target electronic device forwards the control command to the original target electronic device (here, the electronic device 23). Similarly, if the judging module 2111 judges that the control signal command has been transmitted, it returns to step S2021b to re-determine step S2021b.

Referring again to Figure 7, a flow chart for determining the execution of the working module is selected. In step S202 as described in FIG. 4, the preset condition s1n may include a work preset condition, which is whether a control command is received. Therefore, in step S2021c, when the determining module 2111 determines that a control command is received, in step S2023c, the determining module 2111 selects the execution working module 2115, executes its own working program, and generates event recording information s5n. In the case that the monitoring device 21 is a network camera, the working program itself is a photography monitoring working program, and the event recording information s5n generated by the monitoring device is the photographic image information. For example, the monitoring device 21 is a temperature sensor, and the working program itself is a temperature sensing working program, and the event recording information s5n generated by the monitoring device is a temperature sensing record. The control command is from another electronic device having an interactive function of the device, for example, the electronic device 23, and executing the control signal command generated by the transmitting module according to FIG. 5 based on its own preset condition, and can be used as the monitoring device 21 The control instructions described in the work preset conditions. The determining module 2111 determines that the execution working module 2115 and the manner of determining the execution of the sending module 2113 can be integrated. For example, the determining module 2111 can first perform the judgment of sending the preset condition, and then continuously execute the working program itself. And when receiving the control signal command from the electronic device 23, it is about to receive When the control signal command is issued, the own work program is executed and the generated event record information s5n is transmitted to the relay terminal 41.

Referring again to FIG. 8, a flow chart for determining the execution of the forwarding module is selected. In step S202 as described in FIG. 4, the preset condition s1n may include a forwarding preset condition, that is, determining whether a forwarding instruction is received. Therefore, in step S2021d, when the determining module 2111 determines that a forwarding instruction is received, the control unit 211 selects the execution forwarding module 2117 based on the forwarding instruction, and the forwarding information to be forwarded s7n is, for example, a control command or a message, in step S2023d. Then, it is transmitted to a target electronic device through the slot server 215 as in step S203. For example, when the monitoring device 21 receives the forwarding signal command (that is, the forwarding instruction) generated by the transmitting module 2313 of the electronic device 23, the monitoring device 21 can package the information from the electronic device 23 based on the forwarding signal command. '(in this case, information) is forwarded to another target electronic device, for example, the relay device 41 is also included in the list of target electronic devices pre-designated in the monitoring device 21. When the electronic device 23 cannot normally transmit its own information package s0n' to the relay device 41, the electronic device 23 executes the sending module 2313 to send a forwarding signal command, and the monitoring device 21 executes the forwarding module 2117 according to the forwarding preset condition. The information package s0n' of the electronic device 23 is forwarded to the pre-designated relay device 41.

In combination with the foregoing embodiment, the monitoring device 21 has at least one preset condition s1n, which may be a sending preset condition, another sending preset condition, a working preset condition, or a forwarding preset condition, respectively corresponding to executing the sending function module 2113, The working module 2115 and the forwarding module 2117. Similarly, the electronic device 23 is provided with at least one preset condition s1n' corresponding to the monitoring device 21, which may be a preset condition, another transmission preset condition, a work preset condition, or a forwarding preset condition, respectively corresponding to execution. The function module 2313, the work module 2315, and the forwarding module 2317 are provided. The specific steps are as shown and described in Figures 4 to 8, but the foregoing embodiment is illustrated by the angle of the monitoring device 21, and needs to be changed to electricity. The angle judgment of the sub-device 23 will not be described herein.

In other words, in the above embodiment, a total of four preset conditions are disclosed and corresponding to the four functional modules. When the device is started, the corresponding function module can be executed as long as the preset conditions are met. The monitoring device 21 and the electronic device 23 respectively perform a single function module, that is, one of a transmitting module, a working module and a forwarding module, according to the arrangement and combination. In other embodiments, a plurality of combinations of functions, that is, a combined function module of the transmitting module, the working module, and the forwarding module, may be performed. For example, when the determining module 2111 of the monitoring device 21 simultaneously meets the sending preset condition, When the working preset condition is met, the sending module 2111 and the working module 2115 can be executed simultaneously.

In addition, in an embodiment, if the judging modules 211 and 231 in the monitoring device 21 and the electronic device 23 determine that the condition that meets the preset condition is contradictory or the function module is abnormal, the control unit 211 or / and control unit 231 will be able to perform the latter preset conditions. In another embodiment, the control unit 211 or/and the control unit 231 can also notify the user terminal 60 through the relay terminal 40 that such a contradiction or abnormality occurs. In addition, in another embodiment, the storage unit 213, 233 in the monitoring device 21 or/and the electronic device 23 may be pre-set with a list of target electronic devices to be delivered, or preset electronic devices. A receiving list of devices avoids receiving or signaling signals to non-target electronic devices or destinations, reducing the occurrence of conflicts or anomalies.

In the above embodiment, the transmitting module 2113, the working module 2115, and the forwarding module 2117 are simultaneously set. However, in other embodiments, the number of function modules preset in the control unit may be selected according to the design. For example, the monitoring device 21 can also be designed with a transmitting module 2113 and a working module 2115. The electronic device 23 can also be correspondingly configured with a working module 2315 and a forwarding module 2317. For example, the electronic device 23 can also be designed with only the working module 2315. The designer can correspond to the interactive function modules between the devices according to the application functions required.

Therefore, through the device-to-device remote control system 200 and the monitoring method thereof, since the monitoring device 21 of the field end 20 and the at least one electronic device 23 have the interaction function of the device-to-device connection, the multi-directional direction can be achieved. The transmission of information or instructions. In addition, since the monitoring device 21 and the electronic device 23 can respectively set the preset conditions s1n, s1n' and the function modules for executing the corresponding preset conditions s1n, s1n', including the transmitting modules 2113, 2313, the working modules 2115, 2315 Or/and the forwarding modules 2117, 2317 can extend the interaction and application of various functional modules compared to the manner in which a single device operates independently. In addition, in the embodiment with the forwarding preset condition and the forwarding module, since the electronic device 23 and the monitoring device 21 can also execute the forwarding modules 2117 and 2317 respectively, and forward the information or instructions, the information is added to the target electronic device. Or the success rate of the destination solves the problem that the signal can not be transmitted when the connection of the conventional single device is interrupted.

The present invention is not limited to the above embodiment, please refer to step S207 shown in FIG. 2 and FIG. 4 again. In another embodiment, the user end 60 of the device-to-device monitoring system 200 is further used for receiving from the monitoring. The information package s0n of the device 21 or/and the information package s0n' of the electronic device 23 is directly connected to the monitoring device 21 or/and the electronic device 23 end-to-end. Since the identification information s9n, s9n' has the device identification code and/or a network address of the monitoring device 21 or the electronic device 23, the user terminal 60 first obtains the monitoring device 21 through the remote server 43. After the identification information s9n, s9n' of the electronic device 23, the user terminal 60 can directly transmit the information directly to the monitoring device 21 or/and the electronic device 23 of the field terminal 20 in an end-to-end connection manner without using The relay 40 then receives the information passively and indirectly. Therefore, if the relay terminal 40 transmits the identification information s9n, s9n' to the user terminal 60 for the first time, if an interruption or the like occurs, the user terminal 60 can still directly connect to the field end through the end-to-end connection. The monitoring device 21 or/and the electronic device 23 performs monitoring.

In addition, in the foregoing embodiment, the user terminal 60 can directly connect to the monitoring device 21 or/and the electronic device 23 end-to-end after receiving the information package s0n or s0n' of the monitoring device 21 or/and the electronic device 23. However, there may be a situation in which the end-to-end connection is unstable due to a distance such as a long distance. Therefore, in another embodiment of the present invention, the device-to-device monitoring system 200 can also have an end-to-end relay server 80, such as a post office server located near the home end of the field, having a fixed address s80. In other words, the end-to-end relay server 80 acts as a signal relay station, which can receive and store the information package s0n or s0n' from the monitoring device 21 or/and the electronic device 23 of the field terminal 20, and can also be connected to the user end. 60 electrical or internet connection. After the user terminal 60 receives the information package s0n from the monitoring device 21 or the information package s0n' of the electronic device 23 through the relay terminal 40, since the address of the monitoring device 21 or the electronic device 23 can be obtained, the user terminal 60 Then, the end-to-end relay server 80 is connected to the monitoring device 21 of the field terminal 20 or/and the electronic device 23 end-to-end to reduce the problem that the signal transmission range is limited because the transmission distance is too long.

The above is an example of a monitoring device 21 and an electronic device 23. However, the present invention is not limited to the interactive connection mode between only two devices, and can also be designed for interactive connection between multiple devices. Please refer to FIG. 9 , which is a block diagram of a device-to-device monitoring system according to still another embodiment of the present invention. For the description of the components of the same symbol, refer to the embodiment of the device monitoring system 200. The device-to-device monitoring system 300 of the present embodiment differs from the device-to-device monitoring system 200 in that the field terminal 20 is provided with a monitoring device. 21. In addition to the electronic device 23, a second electronic device 25 is further disposed. As shown in FIG. 9, the second electronic device 25, like the monitoring device 21 or the electronic device 23, can also generate an information package s0n" and transmit it to the relay terminal 40. The second electronic device 25 is like the electronic device 23, for example, another a monitoring device 21 or an action device. The action device is a smart home appliance or an alarm. The smart home appliance is, for example, a coffee machine, an air conditioner, an electric lamp, etc. Electronic equipment. The alarm device is, for example, a buzzer, a flash display, or the like.

The interaction between the monitoring device 21, the electronic device 23 and the second electronic device 25 forms a network-like device to the device connection, and each device can transmit commands or/and information from multiple directions. More specifically, please refer to FIG. 9 and FIG. 10 together. FIG. 10 is an enlarged block diagram showing the use end portion in the embodiment shown in FIG.

The internal configurations of the monitoring device 21 and the electronic device 23 will not be described again. The second electronic device 25, like the electronic device 23, has a control unit 251, a storage unit 253, and a slot server 255, which are electrically connected.

The control unit 251 is provided with a determining module 2511 electrically connected to a transmitting module 2513, a working module 2515 or/and a forwarding module 2517. The determining module 2511 is configured to select the sending module 2513, the working module 2515 or the forwarding module 2517 corresponding to the preset condition s1n" according to the at least one preset condition s1n", and the sending module 2513 is configured to generate a signal command s3n The working module 2515 is configured to execute its own working program and generate an event recording information s5n, and the forwarding module 2517 is configured to forward a to-be-forwarded information s7n".

The storage unit 253 is configured to store an identification information s9n" of the device itself. The identification information s9n" includes a device identification code of the second electronic device 25 itself and a network address.

The slot server 255 is configured to transmit the instructions or information generated by the second electronic device 25 or receive information or instructions from the monitoring device 21 or/and the electronic device 23.

In this embodiment, the slot servers 215, 235, and 255 of the monitoring device 21, the electronic device 23, and the second electronic device 25 are used to mutually transmit the identification information s9n, s9n', s9n" of the device itself, thereby forming a device pair. Device connection interaction function. When connected, the three-slot server 215, 235 and 255 are used to transmit instructions or information to a target electronic device (which may be a pre-designated target electronic device). The monitoring device 21, the electronic device 23, and the electronic device 25 are each one of their target electronic devices. For example, in each device, a list of target electronic devices can be stored in a preset manner. When the device is connected to the device, when the device executes the function module based on the preset conditions, the corresponding target electronic device can be found to cooperate with the execution function. Modules, please refer to the following application examples for details.

In addition, the relay device 41 of the relay terminal 40 is also connected to the second electronic device 25, and the remote server 43 is also configured to receive an information package s0n" from the second electronic device 25 at the field end. The information package s0n" has at least the device identification code and/or event record information in the identification information s9n of the second electronic device.

Referring again to FIG. 4, the above-described device-to-device remote control system 300 can also load the monitoring method as described in FIG. In step S201, in addition to the monitoring device 21 and the electronic device 23 forming a device-to-device connection function, the second electronic device 25 also forms a device-to-device connection function with the monitoring device 21 and the electronic device 23, respectively.

Further, in step S202, in addition to the monitoring device 21 and the electronic device 23, the determining module 2511 of the second electronic device 25 may also select a function module corresponding to the preset condition s1n" according to a preset preset condition s1n". It is a transmitting module 2513, a working module 2515 or/and a forwarding module 2517, and correspondingly generates an instruction or a message. In addition, the determining module 2511 selects a function module, such as the sending module 2513, the working module 2515 or/and the forwarding module 2517. The implementation steps are the same as the monitoring device 21 and the electronic device 23. Please refer to the fourth to eighth embodiments and the device. For the monitoring system 200 of the device, the monitoring device 21 specifically selects the implementation steps of the function module, but the process mode of the determination is changed to the angle of the second electronic device 25, and details are not described herein again.

Moreover, in another embodiment of the present invention, when the user terminal 60 receives the second power After the information package s0n" of the sub-device 25, the user terminal 60 can also directly connect to the second electronic device 25 through the end-to-end connection, thereby directly obtaining the information of the second electronic device 25. In still another embodiment, The device-to-device monitoring system 300 can also be provided with an end-to-end relay server 80, which can receive and store information from the monitoring device 21 or/and the electronic device 23, and can also receive and store the second electronic device 25 The information, its function and the connection method are as described above for the device monitoring system 200, and will not be described again.

In summary, the device-to-device monitoring system 300 has a monitoring device 21 and two electronic devices 23, 25. Each device can form a device-to-device connection, and also has four preset conditions as described above and correspondingly execute different functional modules, and each device can execute a single functional module or multiple An operational example of a functional module. In addition, since the monitoring device 21, the electronic device 23, and the second electronic device 25 are also capable of respectively executing a forwarding module to forward information or instructions, each device can transfer information or instructions in multiple directions, thereby increasing information arrival. The success rate of the target electronic device or destination.

Through the foregoing embodiments, various application modes can be changed. In order to better understand the present invention, please refer to the figures 9 to 12, and several specific application examples are listed below. Referring to FIG. 11, in this application example, the user can set up a device-to-device monitoring system 400 having a field end 420, a relay end 440, and a user end 460.

The field end 420 can be an indoor space, and has a network camera 421 having a corresponding monitoring device 21, a temperature sensor 423 having an electronic device 23, and a carbon dioxide corresponding to the second electronic device 25. Sensor 425. In other words, the network camera 421, the temperature sensor 423, and the carbon dioxide sensor 425 are mounted in a regional network formed by the field terminals 420.

In this application example, the relay terminal 440 is provided with a smart street light 441 corresponding to the relay device 41 and a city signal processing center 443 corresponding to the remote server 43. The smart street light 441 is connected to the network camera 421 of the field end 420, the temperature sensor 423, and the carbon dioxide detector 425, and is connected to the city signal processing center 443.

The user terminal 460 includes a smart glasses 461, a smart watch 463, and a smart phone 465, all of which can be connected to the city signal processing center 443 via the Internet.

Referring again to Fig. 12, a flowchart of a method for arranging and executing an application example as shown in Fig. 11 is provided for the user. After the user or the operator sets up the device-to-device monitoring system 400, after the network camera 421, the temperature sensor 423, and the carbon dioxide detector 425 are controlled to obtain the activation command, the network camera 421 transmits through the step S401. The slot server 215 sends identification information s9n with the device identity and the network address to all of the electronic devices located on the regional network. However, since the temperature sensor 423 and the carbon dioxide detector 425 are respectively provided with the corresponding slot server 235 and the slot server 255, the temperature sensor 423 and the carbon dioxide detector 425 can receive the network camera 421. The identification information s9n is not activated by the electronic device that is not provided with the corresponding slot server. After the temperature sensor 423 and the carbon dioxide detector 425 receive the identification information s9n, the identification information s9n' of the temperature sensor 423 and the identification information s9n of the carbon dioxide detector 425 are also transmitted through the slot servers 235 and 255. The image is transmitted back to the network camera 421. Thereby, the network camera 421, the temperature sensor 423, and the carbon dioxide detector 425 are connected to each other, and form an interactive function of the device to the device connection.

As can be seen from step S401, the network camera 421, the temperature sensor 423, and the carbon dioxide detector 425 are known to be connected in a three-way position. At this time, the process proceeds to step S402 and subsequent steps are performed in the network camera 421, the temperature sensor 423, and the carbon dioxide detector 425, respectively. Set various preset conditions and function modules corresponding to preset conditions. In the present application example, the preset condition setting step of steps S402 to S403 is included, but is not limited thereto. From the description of FIGS. 4 to 8, it can be seen that there are many possible changes in the setting of the preset condition and the corresponding function module, and the order of setting can also be changed. In this application example, as in step S402, the transmission preset condition of the network camera 421 as shown in FIG. 5 is set, that is, whether the network camera 421 detects that a live event conforms to a preset situation. In this case, the preset situation is set to be entered by someone. If so, the network camera 421 will select to execute the transmitting module 2113, generate a control signal command, and transmit it to the target electronic device through the slot server 215, which is the temperature sensor 423 and the carbon dioxide detector 425.

Moreover, in step S403, the temperature presets of the temperature sensor 423 and the carbon dioxide detector 425 can be set as illustrated in FIG. 7, respectively. The working preset condition of the temperature sensor 423 and the working preset condition of the carbon dioxide detector 425 are all receiving a control command, which is a control signal command from the network camera 421. If so, the working module 2315 of the temperature sensor 423 itself is executed. The carbon dioxide detector 425 executes its own working module 2515.

Next, in step S404, the network camera 421, the carbon dioxide detector 425, and the temperature sensor 423 respectively control the setting to store a list of target electronic devices. The target electronic device list can be applied to the transmitting module, the application module, and the forwarding module. In the present embodiment, for the network camera 421, the carbon dioxide detector 425, the temperature sensor 423, and the smart street light 441 are its target electronic devices. For the carbon dioxide detector 425, the network camera 421, the temperature sensor 423, and the smart street light 441 can be their target electronic devices. For the temperature sensor 423, the network camera 421, the carbon dioxide detector 425, and the smart street light 441 can be their target electronic devices. When setting the target electronic device, the target electronic device such as the smart street light 421 can be set. The destination, such as the city signal processing center 443, for example, can register the city account of the city signal processing center 443 via the Internet, and the smart street light 421 can further transfer the information to the city signal processing center 443.

In addition, in order to avoid receiving multiple commands at the same time, in another embodiment of the present invention, a receiving list may be preset in the network camera 421, the temperature sensor 423, and the carbon dioxide detector 425, respectively. Receive signals from which electronic devices. For example, for the temperature sensor 423, a signal that only receives the network camera 421 or the carbon dioxide detector 425 is set. For the network camera 421, it is set to receive only signals from the user terminal 460, the temperature sensor 423 or the carbon dioxide detector 425. For the carbon dioxide detector 425, a signal for receiving only the network camera 421 and the temperature sensor 423 can be set.

Presetting conditions and corresponding function modules, preset target electronic devices, destinations, etc. of the network camera 421, the temperature sensor 423, the carbon dioxide detector 425 of the device-to-device monitoring system 400 through the above steps S401 to S404 After the setting is completed, the device-to-device monitoring system 400 can be controlled to enter the device-to-device monitoring method.

Continuing to refer to step S405, in the application example, the determining module 2111 of the network camera 421 determines whether the preset condition s1n is established, and is to send a preset condition, that is, whether the network camera 421 detects a scene. The event conforms to a preset situation. When the judging module 2111 determines YES, the network camera 421 will select to execute the transmitting module 2113, generate a control signal command, and transmit the same to the temperature sensor 423 and the carbon dioxide detector 425 through the slot server 215. Control temperature sensor 423 and carbon dioxide detector 425 initiate their own working procedures.

Then, in step S406, when the temperature sensor 423 and the carbon dioxide detector 425 respectively receive the control signal command, the temperature sensor 423 and the carbon dioxide detector 425 can Each of the work preset conditions determines whether a control command (control signal command) is received, and if so, executes the work module 2315 of the temperature sensor 423 itself. The carbon dioxide detector 425 executes its own working module 2515. The temperature sensor 423 thus performs a temperature sensing program equivalent to its own working program, and generates temperature recording information equivalent to the event recording information s5n'. The carbon dioxide detector 425 executes a detected carbon dioxide concentration program equivalent to its own working program and generates a carbon dioxide concentration record corresponding to the event recording information s5n".

Next, in step S407, the network camera 421, the temperature sensor 423, and the carbon dioxide detector 425 can respectively record the information formed by the event recording information s5n, s5n', and s5n", and the identification information s9n, s9n', and s9n". The packages s0n, s0n', s0n" are transmitted to the smart lighting device previously designated as the target electronic device, that is, the smart street light 441.

Then, in step S408, the smart street light 441 corresponding to the smart light-emitting device transmits the information package s0n, s0n', s0n" to the preset destination, which is the city signal processing center 443. Transferred to the destination via other transponders.

Then, in step S409, the city signal processing center 443 receives and stores the information packages s0n, s0n', s0n", and identifies the information packages s0n, s0n', s0n" within the identification information s9n, s9n', and s9n", and A user terminal 460 device having the same device identity identification code in the identification information s9n, s9n', and s9n" is found. In addition, in another application example, the present invention can establish a preset condition for interaction between the device and the device, so that the city signal processing center 443 corresponding to the remote server can be set. When the event record information s5n, s0n', s0n monitored by at least two devices (the network camera 421, the temperature sensor 423 or the carbon dioxide detector 425) is recognized as having an intruder invasion Then, the user terminal 460 is notified again, thereby providing monitoring information directly to the user after monitoring by a single device. In the end, the accuracy of identifying intruders is improved.

Finally, in step S410, the user's smart wearable devices such as smart glasses 461, smart watch 463, and smart phone 465 receive the information package s0n, the information package s0n', or/and the information package s0n. The user can view the image data, the temperature sensing data, or the carbon dioxide concentration data from the home interior on the display interface of the smart glasses 461, the smart watch 463, and the smart phone 465 to perform operations on the monitoring system.

Referring to FIG. 11 again, in another embodiment of the present invention, after the information terminal s0n, s0n', or / and s0n is received by the using terminal 460, the network camera 421, the temperature sensor 423 or And the network address of the carbon dioxide sensor 425. Therefore, the user terminal 460 can further directly communicate with the network camera 421, the temperature sensor 423, and the carbon dioxide sensor 425 of the field terminal 420 through the end-to-end network. By connecting to the city signal processing center 443, the data is transmitted directly. Therefore, if the message is interrupted during the transmission, the end-to-end connection mode can still be used for the user to obtain monitoring information.

The above application embodiment is only an application aspect, and can be understood through the descriptions of the device-to-device monitoring system 200 and the device-to-device monitoring system 300, since the device and the device can be connected to each other and correspondingly actuated, and the interaction is set. Pre-set conditions, so you can create a variety of possibilities for application.

Referring to FIG. 4, FIG. 9 and FIG. 11 again, in another application example of the present invention, the monitoring device 21 can be a network camera, and the electronic device 23 is changed to a smart coffee machine, and the second The electronic device 24 is changed to a smart juice machine. It also performs the steps as described in Figure 4. The difference is that when the preset condition of the monitoring device 21 is set as shown in FIG. 5, it can be set to send a control signal command if the scene event meets a first preset situation event. The electronic device 23, wherein the first preset situation event is a person who detects a height of more than 150 cm. In addition, if the live event meets a second preset situation event, a control signal command is sent to the second electronic device 25, and the second preset context event can be set to detect a person whose height is less than 120 cm. When the smart coffee machine corresponding to the electronic device 23 is as shown in FIG. 7, the process proceeds to step S2021c to determine whether a control signal command is received. If the control signal command is received, the smart coffee machine executes the work process of brewing coffee. And generate a bubble record information equivalent to the event record information.

Moreover, the smart juice machine corresponding to the second electronic device 25 also enters step S2021c to determine whether a control signal command is received, as shown in Fig. 7, and if the control signal command is received, the smart juice machine will execute the juice pump. The work program, and the juice record information that generates the event record information, in this application example, can also be executed without being connected to the relay. In another application example, the network camera corresponding to the monitoring device 21, the coffee machine corresponding to the electronic device 23, and the juice machine corresponding to the second electronic device 25 may also be connected to the user terminal 60 through the network or the terminal pair. The wires are connected, so the state of the foregoing embodiment is performed. At this time, since the user terminal 60 receives the photography information, the coffee recording information, and/or the juice recording information, the user can also judge that there may be an intruder intrusion.

The above is only a preferred embodiment of the present invention. The scope of the invention is not limited to the above embodiments. Those who are familiar with the skill of the case, etc. Modifications or changes should be included in the scope of the following patent application.

300‧‧‧Device-to-device monitoring system

20‧‧‧ live end

21‧‧‧Monitoring device

23‧‧‧Electronic devices

25‧‧‧Second electronic device

40‧‧‧Relay

41‧‧‧Relay device

43‧‧‧Remote Server

60‧‧‧User side

61‧‧‧Smart devices

63‧‧‧Alarm system

80‧‧‧End-to-end relay server

S0n, s0n’, s0n”‧‧‧Information package

S80‧‧‧fixed address

Claims (20)

A device-to-device monitoring system includes: a field end having a monitoring device and at least one electronic device, each having: a control unit, comprising a determining module, electrically connected to a transmitting module, a working module or And a forwarding module, the determining module is configured to select, according to at least one preset condition, the sending module, the working module or the forwarding module corresponding to the preset condition, the sending module is configured to generate At least one signal command to a target electronic device, the work module is configured to execute a work process and generate an event record information, the forwarding module is configured to forward a message to be forwarded to another target electronic device; An identification information of the storage device itself; and a slot server for transmitting the signal command, the event record information, the information to be forwarded or the identification information; wherein the second device is inserted through the monitoring device and the electronic device The slot servers transmit their own identification information to each other, thereby forming a connection between the devices and the devices to transmit the instructions or the information to each other; a relay terminal, Having at least one relay device and a remote server, the relay device is connected to the monitoring device or/and the electronic device, and the remote server, and the remote server is configured to receive and store from the remote server a monitoring device or/and an information package of the electronic device; and a user terminal connected to the remote server for receiving the information package of the monitoring device or/and the electronic device. The monitoring system of claim 1, wherein the monitoring device and the electronic device respectively store a list of target electronic devices, the monitoring device and the electronic device are mutually targeted electronic One of the devices. The monitoring system of claim 1, wherein the at least one preset condition is selected as a sending preset condition, a another sending preset condition, a working preset condition, and a forwarding preset condition. Or a combination thereof, wherein the sending preset condition is determining whether a live event meets a preset event situation, and if yes, selecting to execute the sending module to generate the signal command, wherein the signal command is a control signal command; The other transmission preset condition is to determine whether an instruction or a message cannot be successfully transmitted. If yes, the execution of the sending module is selected to generate another signal command, which is a forwarding signal command; Determining whether a control command is received, when the determining module determines to receive a control command, selecting to execute the working module, executing the working program and generating the event record information; the forwarding preset condition is determining whether the message is received a forwarding instruction, when the determining module determines that the forwarding instruction is received, selecting to execute the forwarding module, and forwarding the information to be forwarded to another according to the forwarding instruction A target electronic device. The monitoring system of claim 1, wherein the information package of the monitoring device has: the event record information generated by the monitoring device and the identification information of the monitoring device itself, the information package of the electronic device has : the event record information generated by the electronic device and the identification information of the electronic device itself. The monitoring system of claim 1, wherein the identification information has a device identity and a network address. The monitoring system of claim 1, wherein the user terminal is further configured to directly contact the monitoring device or/and the electronic device after receiving the information package from the monitoring device or/and the electronic device. Perform one-to-one connection. The monitoring system as recited in claim 1 includes an end-to-end relay server and the monitoring The device or/and the electronic device are connected to store the identification information from the monitoring device or/and the electronic device, and the user terminal is further configured to receive the monitoring device or/and the electronic device through the remote server. After the identification information of the device is connected to the end-to-end relay server. The monitoring system of claim 1, wherein the monitoring device is a network camera, a carbon dioxide detector, a smoke detector, an acoustic sensor or a heat source sensor. The monitoring system of claim 1, wherein the electronic device is a monitoring device or an action device, and the monitoring device is a network camera, a carbon dioxide detector, a smoke detector, and a sound. A sensor or a heat source sensor, the action device being a smart home appliance or an alarm. The monitoring system of claim 1, wherein the field end further comprises a second electronic device, comprising: a control unit, comprising a determining module electrically connected to a transmitting module and a working module a group or/and a forwarding module, wherein the determining module is configured to select, according to at least one preset condition, the sending module, the working module or the forwarding module corresponding to the preset condition, where the sending module is used To generate a signal command, the work module is configured to execute a work process and generate an event record information, the forwarding module is configured to forward a message to be forwarded, and a storage unit stores an identification information of the device itself; And a slot server for transmitting the instructions or the information generated by the second electronic device; wherein the monitoring device, the electronic device, and the slot servers of the second electronic device transmit the same to each other The identification information of the device itself, thereby forming a device-to-device connection, and the three-slot server is configured to transmit the instructions or the information to a target electronic device, the monitoring device, the electronic device, and A second electronic device which is one of the target electronic apparatus to each other, and the relay terminal The relay device is further connected to the second electronic device, and the remote server is further configured to receive an information package of the second electronic device from the field end. The monitoring system of claim 10, wherein the user terminal is further configured to directly contact the monitoring device after receiving the information package from the monitoring device, the electronic device, or/and the second electronic device The electronic device or/and the second electronic device are connected to the end-to-end device. The monitoring system of claim 10, comprising an end-to-end relay server connected to the monitoring device, the electronic device or/and the second electronic device for storing the monitoring device, the electronic device Or the identification information of the second electronic device, the user terminal is further configured to receive the identification information from the monitoring device, the electronic device, or/and the second electronic device, and the end-to-end Follow the server connection. The monitoring system of claim 10, wherein the second electronic device is a network camera, a carbon dioxide detector, a heat source sensor, a smoke detector, an acoustic sensor, A smart home appliance or an alarm. The monitoring system of claim 1, wherein the relay device is a smart lighting device or a network router. The monitoring system of claim 1, wherein the user terminal is a personal smart phone, a smart watch, a smart eyeglass, a personal computer, a notebook computer, a number of assistants, a tablet computer, An alarm system or a safety center system or a combination thereof. A device-to-device monitoring system includes: a monitoring device and at least one electronic device, each having: a control unit, comprising a determining module, electrically connected to a transmitting module, a working module or/and a forwarding a module, the determining module is configured to select and execute according to at least one preset condition The transmitting module, the working module or the forwarding module, the transmitting module is configured to generate at least one signal command to a target electronic device, the working module is configured to execute a working program and generate a Event recording information, the forwarding module is configured to forward a message to be forwarded to another target electronic device; a storage unit for storing an identification information of itself; and a slot server for transmitting the signal command, Recording information, the information to be forwarded or the identification information; wherein the two-slot server of the monitoring device and the electronic device transmit the identification information of the device to each other, thereby forming a connection between the device and the device, Transfer these instructions or information to each other. The device-to-device monitoring system of claim 16, further comprising: a user terminal, connected to the monitoring device or/and the electronic device, for receiving the monitoring device or/and the electronic device An information package. A device-to-device monitoring method includes the steps of: transmitting a monitoring device and an identification information of the electronic device to each other through a monitoring device and an individual one-slot server in the at least one electronic device, thereby causing the monitoring device and the The electronic device transmits the device to the device through the slot server; the monitoring device and the respective one of the predetermined determining modules in the electronic device respectively select and execute a transmitting module according to at least one preset condition. a working module or a forwarding module, wherein the transmitting module is configured to generate a signal command to a target electronic device, the working module is configured to execute a working program and generate an event recording information, the forwarding module The group is configured to forward a message to be forwarded to another target electronic device, and the monitoring device and the electronic device pre-designate each other as a target electronic One of the devices; transmitting, by the monitoring device and the respective slot server of the electronic device, the generated instructions or the information to the target electronic device or the other target electronic device; The monitoring device or/and a respective information package in the electronic device is transmitted to a remote server; and the remote server is used to identify the device identity in the identification device or/and the identification information of the electronic device And identifying the code and transmitting the information package of the monitoring device or/and the electronic device to a user terminal having the device identity code. The monitoring method of claim 18, wherein the at least one preset condition is selected as a sending preset condition, a another sending preset condition, a working preset condition, and a forwarding preset condition. Or a combination thereof, the sending preset condition determines whether a live event conforms to a preset event situation, and if so, selecting to execute the sending module to generate the signal command, wherein the signal command is a control signal command, the inserting The slot server further sends the control signal command to the target electronic device; the other sends a preset condition to determine whether the command or the information cannot be successfully transmitted, and if so, selects to execute the sending module, and generates the signal command to Another target electronic device, wherein the signal command is a forward signal command; the work preset condition determines whether a control command is received, and when it is determined that the control command is received, the work module is selected to execute the work. The program generates the event record information; the forwarding preset condition determines whether a forwarding instruction is received, and when it is determined that the forwarding instruction is received Selecting execution of the forwarding module, a forwarding information to be forwarded to another target electronic device based on the forwarded command. The monitoring method of claim 18, wherein after the user end receives the information package from the monitoring device or/and the electronic device, the method further includes the following steps: the user is straight The end-to-end relay server is connected to the monitoring device or/and the electronic device through an end-to-end relay server.