Edge computing monitoring module and system

Abstract

An edge computing monitoring system (1) of an industrial computer adapted to be installed and electrically controlled in a large-scale server control room or an automatic industrial control production line or the like, comprising a mounting component (2) and an edge computing monitoring module (3), and achieving the significant effect of edge computing mainly by means of technical features such as monitoring by the edge computing monitoring module (3) comprised in the edge computing monitoring system (1) and processing of an external instant monitoring signal by means of instant computing.

Description

Monitoring module and system with edge computing Technical Field

[0001] The present invention is related to edge computing technology, and in particular to a monitoring module and system with edge computing. Background Art

[0002] Currently, demand for industrial computers is increasing significantly across various industries, such as large server control rooms and automated industrial control production lines. Stability and reliability in these industrial environments are even more critical than those of standard commercial computers. Otherwise, if an industrial computer crashes in a large server control room or automated industrial control production line, the resulting losses would be incalculable. Therefore, the present invention aims to improve the ability of monitors or operators to effectively obtain the current working environment status and corresponding data (e.g., temperature, humidity, or cleanliness) of an industrial computer in a large server control room or automated industrial control production line, and to promptly report this information to the monitor or operator.

[0003] Summary of the Invention

[0004] In order to improve the problems existing in the prior art, the present invention provides an edge computing monitoring system suitable for installation and application and electrical control in large server control rooms or automated industrial control production lines and other industrial computers belonging to industrial computers. The system mainly achieves significant edge computing effects through the technical feature of an edge computing monitoring module it contains, which can monitor and instantly process a real-time monitoring signal outside the computing system.

[0005] To achieve the above objectives, the present invention provides an edge computing monitoring system comprising a mounting assembly and an edge computing monitoring module. The mounting assembly comprises a mounting member and a carrier that can be slidably embedded in the mounting member, wherein the edge computing monitoring module is accommodated in the carrier of the mounting assembly. The edge computing monitoring module includes a microprocessor unit, a power supply unit, a first transmission unit and a second transmission unit. The microprocessor unit is electrically connected to and electrically controls the power supply unit, the first transmission unit and the second transmission unit respectively; wherein the microprocessor unit has an edge computing logic, and the second transmission unit is wirelessly transmitted with the outside according to a wireless communication protocol; wherein the microprocessor unit electrically receives a real-time monitoring signal from the first transmission unit, and uses the edge computing logic to analyze and calculate the real-time monitoring signal to generate real-time monitoring data, so that the microprocessor unit can selectively electrically transmit the real-time monitoring data to the initial source end through the first transmission unit in an electrically controlled manner, or electrically match the real-time monitoring data (i.e., network configuration) to the external monitoring end through the second transmission unit in a wireless transmission manner.

[0006] The edge computing monitoring system disclosed in the present invention is characterized in that the microprocessor unit of the edge computing monitoring module has the edge computing logic. The edge computing logic is used to analyze and calculate the real-time monitoring signal, so that the microprocessor unit can selectively transmit the real-time monitoring data to the initial source end through the first transmission unit in an electrically controlled manner, or electrically match (i.e., network configuration) the real-time monitoring data to the external monitoring end through the second transmission unit in a wirelessly transmitted manner. In this way, the processes that should originally be calculated and processed by the central nodes such as the operating devices in the large server control room or the industrial control devices in the production line can be individually matched (i.e., network configuration) to the monitoring system for calculation and processing, thereby achieving the effect of edge computing. BRIEF DESCRIPTION OF THE DRAWINGS

[0007] FIG1 is a perspective diagram of a preferred embodiment of the present invention, mainly illustrating a monitoring system with edge computing installed on a guide rail;

[0008] FIG2 is an exploded perspective view of some components of FIG1 , mainly revealing the corresponding states between the mounting assembly and its sub-components of the monitoring system;

[0009] FIG3 is an exploded perspective view of some components of FIG2 , mainly illustrating the connection between the monitoring module of the monitoring system and the carrier of the mounting assembly;

[0010] FIG4 is a block diagram of the monitoring module of FIG3 ;

[0011] FIG5 is an exploded perspective view of some components similar to FIG1 , mainly showing a state in which a set of connectors of the mounting assembly of the monitoring system is mounted on the outer peripheral wall of a mounting member;

[0012] FIG6 is an exploded perspective view of some components similar to FIG2 , mainly showing the corresponding state of the mounting member of the monitoring system after the mounting member undergoes rotational movement;

[0013] FIG7 is a perspective schematic diagram similar to FIG6 , mainly illustrating the corresponding state of the mounting member of the monitoring system after the mounting member has rotated and is assembled on the mounting member;

[0014] FIG8 is a perspective view of a preferred embodiment of the present invention in actual use, mainly showing the actual use of multiple monitoring systems installed at a turning point or a bend;

[0015] FIG9 is a block diagram of a monitoring system with edge computing according to another preferred embodiment of the present invention.

[0016] [Description of Symbols] 1: Monitoring system 2: Mounting assembly 21: Mounting member 211: Plate base 212: Locking wing 213: Accommodating space 214: Opening 215: Outer wall 216: Inner wall 217: First guide portion 218: Second guide portion 219: Locking member 23: Carrying member 231: Top 232: Bottom 233: Peripheral wall 234: Accommodating space 235: Guide member 25: Assembly member 251: First assembly portion 253: Second assembly portion 3, 3A: Monitoring module 3 1. 31A: Microprocessor unit 311, 311A: Edge computing logic 33, 33A: Power supply unit 331, 331A: External power supply configuration 333, 333A: Built-in power supply configuration 35, 35A: First transmission unit 36: First transmission port 37, 37A: Second transmission unit 38: Second transmission port 4: Guide rail 5A: Maintenance terminal monitoring device 51A: Microprocessor unit 53A: Transmission unit 55A: Display unit DETAILED DESCRIPTION

[0017] The applicant first explains that throughout the entire specification, including the embodiments introduced below and the claims of the patent application, the directional terms are based on the directions of the drawings listed in the "Description of the Figures" of this case. Secondly, in the embodiments and drawings to be introduced below, the same component numbers represent the same or similar components or their structural features. Moreover, the detailed structure, characteristics, assembly or use, manufacturing and other methods of the present invention will be described in the subsequent detailed description of the implementation methods. However, those with ordinary knowledge in the field of the present invention should understand that these detailed descriptions and the embodiments listed in the present invention are only used to support the explanation of how the present invention can be implemented, and are not used to limit the scope of the patent application of the present invention.

[0018] Please refer to Figures 1 and 3, which are a preferred embodiment of the present invention, which discloses a monitoring system 1 with edge computing suitable for installation and application and electrical control in large server control rooms or automated industrial control production lines, etc., belonging to industrial computers. The system includes a mounting component 2 and a monitoring module 3 arranged on the mounting component 2. The monitoring module 3 is wirelessly matched with external equipment units based on a wireless communication protocol (i.e., network configuration).

[0019] Please refer to FIG. 1 , FIG. 2 , FIG. 3 and FIG. 5 . The mounting assembly 2 includes a mounting member 21 , a carrier 23 that can be slidably embedded in the mounting member 21 , and an assembly member 25 that can be selectively assembled on the mounting member 21 .

[0020] As mentioned above, please refer to Figures 1 to 3 again. The mounting member 21 of the mounting assembly 2 has an elongated plate-shaped base 211, and two opposite long sides of the elongated plate-shaped base 211 are respectively nearly perpendicular to the plate-shaped base 211 and extend in the same direction to form two locking wings 212, so that a receiving space 213 and an elongated opening 214 connected to the receiving space 213 are formed between the plate-shaped base 211 and the two locking wings 212, thereby making the overall shape of the mounting member 21 slightly U-shaped and having an outer peripheral wall 215 and relative Corresponding to an inner peripheral wall 216 of the outer peripheral wall 215, in addition, the connection between any of the locking wings 212 of the mounting member 21 and the plate-type base 211 is recessed to form a first guide sliding portion 217, and the end extended from any of the locking wings 212 is bent at a predetermined angle from the elongated opening 214 toward the inner peripheral wall 216 to form a second guide sliding portion 218. Preferably, the two first guide sliding portions 217 are both arranged along the long side edges of the plate-type base 211, and the two second guide sliding portions 218 are respectively arranged in relative parallel intervals based on the two first guide sliding portions 217.

[0021] 1 to 3, the carrier 23 of the mounting assembly 2 has a top 231, a bottom 232 corresponding to the top 231, and a peripheral wall 233 surrounding and connecting the top 231 and the bottom 232. In this way, the carrier 23 is basically formed by the top 231, the bottom 232 and the peripheral wall 233 to form a hollow plate-shaped shell with an accommodating space 234, so that the monitor The control module 3 can be accommodated in the accommodating space 234 of the carrier 23, wherein the connection between the top 231 of the carrier 23 and the peripheral wall 233 and the connection between the bottom 232 and the peripheral wall 233 are respectively provided with a guide slide 235. Preferably, the two guide slides 235 are respectively arranged along the peripheral wall 233 around the top 231 and the bottom 232, so that the outer portion of the carrier 23 of the slightly square hollow plate shell is basically provided with two relatively spaced The guide slide 235 is provided so that the carrier 23 can be adapted to the positions of the two first guide slides 217 and the two second guide slides 218 of the mounting member 21 through the two guide slides 235, and then present a reciprocating sliding motion based on the long side direction of the plate-shaped base 211 of the mounting member 21. Preferably, the carrier 23 is slid to a predetermined matching position through the two guide slides 235 and based on the two first guide slides 217 and the two second guide slides 218 of the mounting member 21. When in the equipped position, the carrier 23 is locked in the inner wall 216 of the mounting member 21. At this time, the mounting member 21 is further passed through one of the locking wings 212 of the mounting member 21 toward the top 231 or bottom 232 of the carrier 23 through a locking member 219, and then screwed and fixed to the top 231 or bottom 232 of the carrier 23 to prevent the carrier 23 from being released from the mounting member 21 due to accidental slipping.

[0022] 1 to 3 and 5 , the assembly member 25 of the mounting assembly 2 is provided with a first assembly portion 251 and a second assembly portion 253 . The first assembly portion 251 is assembled correspondingly to the position of the outer peripheral wall 215 of the mounting member 21 , and the second assembly portion 253 is used to assemble or buckle the connecting member to the outside. In a preferred embodiment of the present invention, the assembly member 25 is assembled correspondingly to the position of the plate base 211 of the mounting member 21 through the first assembly portion 251 , and is used to assemble on an external guide rail 4 through the second assembly portion 253 .

[0023] In summary, it is worth mentioning that the two guide slides 235 of the carrier 23 of the mounting assembly 2 disclosed in the preferred embodiment of the present invention can be composed of linear guide rails, guide columns or their equivalent matching structures, so that the two first guide slides 217 and the two second guide slides 218 of the mounting member 21 of the mounting assembly 2 can be adapted to the two guide slides 235 of the carrier 23 and can be composed of linear guide rails, guide sleeves, bushings or their equivalent matching structures; in addition, it is worth mentioning that the number of these first guide slides 217 and these second guide slides 218 provided on the mounting member 21 of the mounting assembly 2 can be set to only one according to the actual situation, and the number of the first guide slides 217 and the ... Only one of the two guide slides 235 of the carrier 23 is also provided, and can be slidably arranged on the position of the first guide slide 217 or the second guide slide 218 of the mounting component 21; in addition, it is worth mentioning that the carrier 23 of the mounting assembly 2 can be an elongated hollow shell or other polygonal hollow shell that can be adapted to be slidably arranged on the first guide slide 217 or the second guide slide 218 of the mounting component 21; in summary, these are all things that anyone with common knowledge in the technical field can easily think of after referring to the preferred embodiments of the present invention, and the above-mentioned features are only simple changes in quantity. Therefore, they are not used to limit the technical features that the present invention intends to claim, and they are stated first.

[0024] Please refer to Figures 1 to 4 again. The monitoring module 3 includes a microprocessor unit 31, a power supply unit 33, a first transmission unit 35, a first transmission port 36 electrically connected to the first transmission unit 35, a second transmission unit 37, and a second transmission port 38 electrically connected to the second transmission unit 37. The microprocessor unit 31 is electrically connected to the power supply unit 33, the first transmission unit 35, and the second transmission unit 37, and the power supply unit 33, the first transmission unit 35, and the second transmission unit 37 are all electrically controlled by the microprocessor unit 31. In addition, the power supply unit 33 is electrically connected to the microprocessor unit 31, the first transmission unit 35, and the second transmission unit 37. Used to supply the power required for the electrical actuation of the microprocessor unit 31, the first transmission unit 35 and the second transmission unit 37; In addition, the first transmission port 36 of the monitoring module 3 disclosed in the preferred embodiment of the present invention is a transmission port for supporting Ethernet, and the first transmission port 36 is a position protruding from the peripheral wall 233 of the carrier 23 of the mounting component 2. Of course, other transmission ports can also be selected depending on the actual application field, including but not limited to supporting RS-232-C, RS-422, RS485 or USB transmission ports, and this is not used as a technical feature to limit the technical features claimed by the present invention; In addition, the second transmission port 38 of the monitoring module 3 disclosed in the preferred embodiment of the present invention is to support Bluetooth communication transmission protocol (for example: Bluetooth 4.x, Bluetooth 5.x or Bluetooth Low Energy), and the second transmission port 38 is protruding from the peripheral wall 233 of the carrier 23 of the mounting component 2. Of course, other transmission ports or transmission antennas can also be selected depending on the actual application field, including but not limited to transmission ports or transmission antennas supporting wireless communication protocols such as Wi-Fi communication protocol or NFC communication protocol (Near Field Communication). This is not intended to limit the technical features claimed by the present invention.

[0025] 3 and 4 , the power supply unit 33 of the monitoring module 3 has an external power supply configuration 331 and a built-in power supply configuration 333, wherein the external power supply configuration 331 is a power supply configuration that supports Ethernet (Power over Ethernet, also known as PoE power supply configuration) or a conventional power supply system, and the built-in power supply configuration 333 is a built-in reserve power supply configuration that can be repeatedly charged; preferably, the microprocessor unit 31 of the monitoring module 3 is selectively electrically controlled so that the power supply unit 33 can supply the power required for electrical operations such as the microprocessor unit 31, the first transmission unit 35 and the second transmission unit 37 with the external power supply configuration 331 or the built-in power supply configuration 333. It is worth mentioning that the external power supply configuration 331 of the power supply unit 33 actually operates to have the technical feature of supporting the simultaneous transmission of power and data to other devices in the Ethernet network, including but not limited to Internet phones, wireless base stations, network cameras, large server control rooms or automotive industrial control production lines and other industrial computers and other devices, and this is not used to limit the technical features claimed by the present invention.

[0026] Continuing with the above, please refer to Figures 3 and 4 together. The first transmission unit 35 of the monitoring module 3 supports a Modbus communication protocol suitable for industrial computer communications, including but not limited to Modbus TCP / IP (i.e., supporting TCP / IP over Ethernet), Modbus RTU (i.e., supporting RS-232-C, RS-422, RS-485, or USB), or Modbus ASCII. Similarly, this is not intended to limit the technical features of the present invention, and this is further clarified. The second transmission unit 37 of the monitoring module 3 supports a Bluetooth communication transmission protocol (e.g., Bluetooth 4.x, Bluetooth 5.x, or Bluetooth Low Energy) and provides data or signal transmission, wherein the data is generally composed of text, voice, multimedia video, etc. Similarly, this is not intended to limit the technical features of the present invention, and this is further clarified. Of course, it is worth mentioning that the wireless communication protocol based on the second transmission unit 37 of the monitoring module 3 is visible to the actual field and can be selectively based on other wireless communication protocols as the transmission of data or signals, which includes but is not limited to wireless communication protocols such as Wi-Fi communication protocol or NFC communication protocol (Near Field Communication) for the purpose of transmitting data or signals.

[0027] As mentioned above, please refer to FIG. 3 and FIG. 4 together, and the microprocessor unit 31 has edge computing (Edge Computing) technical features, preferably, the microprocessor unit 31 has an edge computing logic 311; in addition, the microprocessor unit 31 is a real-time monitoring signal after electrically receiving information or signals from the Modbus communication protocol supported by the first transmission unit 35. At this time, the microprocessor unit 31 uses the edge computing logic 311 to analyze and calculate the real-time monitoring signal, thereby generating a real-time monitoring data that can be interpreted. Preferably, the microprocessor unit 31 can selectively transmit the real-time monitoring data electrically to the initial source end through the Modbus communication protocol supported by the first transmission unit 35 in an electrically controlled manner, or electrically match the real-time monitoring data (i.e., network configuration) to the external monitoring end through the Bluetooth communication transmission protocol supported by the second transmission unit 37 in a wireless manner, or electrically match the real-time monitoring data to another operating device or industrial control device installed with the monitoring system 1 through the Bluetooth communication transmission protocol supported by the second transmission unit 37 in a wireless manner. It is worth mentioning that the real-time monitoring data is basically composed of text, voice, multimedia audio and video or a combination thereof, and its content includes but is not limited to data such as temperature, humidity, voltage or current.

[0028] The above are the technical features of the monitoring system 1 and its various subcomponents disclosed in the preferred embodiment of the present invention. The following will further describe the main functions and intended effects achieved by using the monitoring system 1 disclosed in the preferred embodiment of the present invention to electrically monitor the operation of several operating devices in a large server control room or several industrial control devices in an automated industrial control production line:

[0029] First, please refer to Figures 1 and 5 together. First, generally, several operating devices in a large server control room or several industrial control devices in a production line will each have their own corresponding matching predetermined positioning points, and each of the predetermined positioning points is corresponding to and used in common with the guide rail 4. Its purpose is not only to allow each operating device or each industrial control device to achieve the effect of facilitating fine-tuning and assembly, but also to allow each operating device to be spaced and aligned with each other or each industrial control device to be spaced and aligned with each other. Therefore, the monitoring systems 1 disclosed in the preferred embodiment of the present invention are first respectively corresponding to and adjacent to each operating device in the large server control room to be monitored. The industrial control devices of the device or production line, then, through the technical feature that the connecting member 25 of the mounting component 2 of each monitoring system 1 corresponds to and is used to be assembled on the external guide rail 4, preferably, the second connecting portion 253 of the connecting member 25 of the mounting component 2 of each monitoring system 1 is correspondingly assembled on the guide rail 4. In this way, the operating devices of the large server control room to be monitored or the industrial control devices of the production line will not only no longer need to add additional connecting components to be assembled with the monitoring systems 1 disclosed in the preferred embodiment of the present invention, but also make the overall actual implementation field more effective in its unified construction.

[0030] Secondly, please refer to Figures 1, 5 and 8 together. When the predetermined positioning points corresponding to the several operating devices in a general large-scale server control room or the several industrial control devices in the production line encounter a turning point or a bend, as shown in Figure 4, then, the assembly component 25 of the mounting component 2 of each monitoring system 1 can be selectively assembled corresponding to the position of the outer wall 215 of the mounting component 21 of the mounting component 2 or the position of the plate base 211 of the mounting component 2. This technical feature can greatly improve the assembly restrictions of the predetermined positioning points corresponding to the several operating devices in a large-scale server control room or the several industrial control devices in the production line when encountering a turning point or a bend.

[0031] Third, please refer to Figures 1, 2, 5 to 8 together. When the Ethernet transmission ports or other transmission ports supported by several operating devices in a general large-scale server control room or several industrial control devices in a production line are not in the same direction, as shown in Figures 1 and 2, then, the supporting member 23 of the mounting component 2 of each monitoring system 1 can be reciprocally slid and clamped on the mounting component 21 and other technical features. Preferably, the supporting member 23 of the mounting component 2 of each monitoring system 1 is adapted to slide on the position of the first guide slide 217 or the second guide slide 218 of the mounting component 21 through the guide slide 235. In this way, after preliminary checking of the Ethernet transmission ports or other transmission ports supported by each operating device in a large-scale server control room or each industrial control device in a production line, After the respective direction positions are adjusted, the supporting member 23 of the mounting component 2 is rotated in a radial clockwise or counterclockwise direction as a whole until the first transmission port 36 or the second transmission port 38 of the monitoring module 3 of each monitoring system 1 is adapted to the respective direction positions of the Ethernet transmission port or other transmission port supported by each operating device in the large server control room or each industrial control device in the production line (as shown in Figures 6 and 7, the first transmission port 36 of the monitoring module 3 is rotated to face the long opening 214 of the mounting member 21 of the mounting component 2), and then the supporting member 23 of the mounting component 2 of each monitoring system 1 can be slid and embedded in the mounting member 21 again, thereby achieving the effect of being easily adapted to the electrical connection to the external transmission ports through rotation adjustment.

[0032] Fourthly, please refer to FIG. 2 to FIG. 4 again. When the microprocessor unit 31 of the monitoring module 3 of each monitoring system 1 receives the external real-time monitoring signal after the information or signal of the Modbus communication protocol supported by the first transmission unit 35 is electrically received, at this time, the microprocessor unit 31 of the monitoring module 3 of each monitoring system 1 has edge computing (Edge Computing) technical features, thus, the microprocessor unit 31 of the monitoring module 3 of each monitoring system 1 is used to analyze and calculate the real-time monitoring signal through the edge computing logic 311, thereby generating a real-time monitoring data that can be interpreted. At this time, the microprocessor unit 31 of the monitoring module 3 of each monitoring system 1 can selectively transmit the real-time monitoring data to the initial source end in an electrically controlled manner through the Modbus communication protocol supported by the first transmission unit 35, or electrically match the real-time monitoring data to the external monitoring end in a wireless transmission manner through the Bluetooth communication transmission protocol supported by the second transmission unit 37. As a result, the processes that should have been calculated and processed by the central nodes such as the operating devices in the large server control room or the industrial control devices of the production line can be individually matched to the monitoring system 1 disclosed in the preferred embodiment of the present invention for calculation and processing, thereby achieving the functions of both edge computing (Edge Computing) and relay routing (Router).

[0033] Fifth, please refer to Figures 2 to 4 again. When the microprocessor unit 31 of the monitoring module 3 of each monitoring system 1 electrically receives the external real-time monitoring signal after the information or signal of the Modbus communication protocol supported by the first transmission unit 35, the microprocessor unit 31 uses the edge computing logic 311 to analyze and calculate the real-time monitoring signal to generate a real-time monitoring data that can be interpreted. At this time, if the microprocessor unit 31 of the monitoring module 3 of each monitoring system 1 can optionally use the Bluetooth communication transmission protocol supported by the second transmission unit 37 to wirelessly transmit the real-time monitoring data electrically to another operating device or industrial control device equipped with the monitoring system 1, in addition to achieving the effect of edge computing, it also has the effect of network topology.

[0034] Please refer to FIG1, FIG3 and FIG9, which are another preferred embodiment of the present invention, which is suitable for installation and application and electrical control in large server control rooms or automated industrial control production lines, etc., belonging to industrial computers with edge computing (Edge The monitoring system of the present invention is a monitoring system for monitoring a computer program product, the main structure and technical features and functions of which are similar to those of the aforementioned preferred embodiment, that is, it includes a mounting component 2 and a monitoring module 3A arranged on the mounting component 2. The monitoring module 3A is wirelessly matched with the outside world based on a wireless communication protocol. Similarly, the monitoring module 3A includes a microprocessor unit 31A, a power supply unit 33A, a first transmission unit 35A, a first transmission port 36 electrically connected to the first transmission unit 35A, a second transmission unit 37A and a second transmission port 38 electrically connected to the second transmission unit 37A. The microprocessor unit 31A is electrically connected to the power supply unit 33A, the first transmission unit 35A and the second transmission unit 37A respectively. The power supply unit 33A has an external power supply configuration 331A and a built-in power supply configuration 333A, wherein the external power supply configuration 331A is a power supply configuration that can support Ethernet (Power over Ethernet). The built-in power supply configuration 333A is a built-in reserve power configuration that can be recharged. Compared with the above preferred embodiment, its different technical features and functions are:

[0035] Please refer to Figure 9 again, and the monitoring system further includes a maintenance-end monitoring device 5A (for example, a smart phone, a tablet computer, or a resident server host, etc.), and the maintenance-end monitoring device 5A includes a microprocessor unit 51A, a transmission unit 53A, and a display unit 55A, and the microprocessor unit 51A is electrically connected to and electrically controlled by the transmission unit 53A and the display unit 55A. Therefore, the monitoring system is electrically matched to the external maintenance-end monitoring device 5A according to a wireless communication protocol through the monitoring module 3A. In this way, the microprocessor unit 31A of the monitoring module 3A of each monitoring system is used to analyze and calculate the real-time monitoring signal through the edge computing logic 311A, thereby generating a real-time monitoring data that can be interpreted (similarly, it includes but is not limited to temperature, humidity, voltage or electricity). stream, etc.), at this time, the microprocessor unit 31A of the monitoring module 3A of each monitoring system can not only selectively electrically match the real-time monitoring data to another operating device or industrial control device equipped with the monitoring system in a wireless manner through the Bluetooth communication transmission protocol supported by the second transmission unit 37A, but also can electrically transmit the real-time monitoring data to the transmission unit 53A of the external maintenance-end monitoring device 5A (for example: a smart phone, a tablet computer or a resident server host, etc.) in a wireless manner through the Bluetooth communication transmission protocol supported by the second transmission unit 37A, and then display it through the display unit 55A of the maintenance-end monitoring device 5A. At this time, the monitoring personnel at the maintenance end can know the basic information of the corresponding operating device or the industrial control device in advance, thereby effectively achieving the effect of facilitating remote monitoring for the monitoring personnel. Similarly, the wireless communication protocols used by the monitoring module 3A and the maintenance-end monitoring device 5A of the monitoring system are both based on the Bluetooth communication transmission protocol (e.g., Bluetooth 4.x, Bluetooth 5.x, or Bluetooth Low Energy). Of course, other wireless communication protocols can also be used for data or signal transmission, including but not limited to wireless communication protocols such as NFC communication protocol (Near Field Communication) or Wi-Fi communication protocol for data or signal transmission. However, these are not intended to limit the technical features claimed in the present invention, and this is stated in advance.

Claims

1. An edge computing monitoring module, comprising: A microprocessor unit (31), a power supply unit (33), a first transmission unit (35) and a second transmission unit (37), wherein the microprocessor unit (31) is electrically connected to and electrically controls the power supply unit (33), the first transmission unit (35) and the second transmission unit (37); in, The microprocessor unit (31) has an edge computing logic (311), and the second transmission unit (37) is capable of wireless transmission with the outside according to a wireless communication protocol; The microprocessor unit (31) electrically receives a real-time monitoring signal from the first transmission unit (35), and uses the edge computing logic (311) to analyze and calculate the real-time monitoring signal to generate real-time monitoring data, so that the microprocessor unit (31) can selectively electrically transmit the real-time monitoring data to the initial source end through the first transmission unit (35) in an electrically controlled manner, or electrically match the real-time monitoring data to an external monitoring end in a wirelessly transmitted manner through the second transmission unit (37).

2. The edge computing monitoring module according to claim 1, wherein: The power supply unit (33) includes an external power supply configuration (331) and a built-in power supply configuration (333). The microprocessor unit (31) can selectively electrically control the power supply unit (33) to be powered by the external power supply configuration (331) or the built-in power supply configuration (333).

3. The edge computing monitoring module as described in claim 2 further includes a first transmission port (36) which is electrically connected to the first transmission unit (35), and the first transmission unit (35) is based on the Modbus communication protocol for data or signal transmission.

4. The edge computing monitoring module as described in claim 3 further includes a second transmission port (38) which is electrically connected to the second transmission unit (37), and the second transmission unit (37) is based on a wireless communication protocol such as a Wi-Fi communication protocol, a Bluetooth communication transmission protocol or an NFC communication protocol (Near Field Communication) for data or signal transmission.

5. An edge computing monitoring system, comprising: An edge computing monitoring module (3) and a maintenance end monitoring device (5A) as claimed in any one of claims 1 to 4; wherein the maintenance end monitoring device (5A) comprises a microprocessor unit (51A), a transmission unit (53A) and a display unit (55A), and the microprocessor unit (51A) is electrically connected to and electrically controlled by the transmission unit (53A) and the display unit (55A); in, The transmission unit (53A) of the maintenance end monitoring device (5A) is based on the wireless communication protocol. A second transmission unit (37) electrically matched to the edge computing monitoring module (3); The microprocessor unit (31) of the edge computing monitoring module (3) electrically transmits the real-time monitoring data to the transmission unit (53A) of the maintenance end monitoring device (5A) in a wireless manner through the second transmission unit (37), and then displays the real-time monitoring data through the display unit (55A) of the maintenance end monitoring device (5A).

6. The edge computing monitoring system as claimed in claim 5, further comprising a mounting assembly (2), comprising a mounting member (21) and a carrier (23) that can be slidably embedded in the mounting member (21); wherein, The edge computing monitoring module (3) is accommodated in the carrier (23) of the mounting component (2).

7. The edge computing monitoring system as claimed in claim 6, wherein: The mounting component (2) includes a connecting member (25), and the connecting member (25) is assembled on the mounting member (21).

8. An edge computing monitoring system, comprising: A mounting component (2) and an edge computing monitoring module (3) as claimed in any one of claims 1 to 4; the mounting component (2) comprises a mounting member (21) and a carrier (23) which can be slidably embedded in the mounting member (21), wherein: The edge computing monitoring module (3) is accommodated in the carrier (23) of the mounting component (2).

9. The edge computing monitoring system as claimed in claim 8, wherein: The mounting component (2) includes a connecting member (25), and the connecting member (25) is assembled on the mounting member (21).

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