5G low-power-consumption edge computing controller

Abstract

The invention relates to the technical field of controllers, in particular to a 5G low-power-consumption edge computing controller. The device at least comprises a timely response unit, a control logic unit, a high-characteristic support unit, a first circuit, a second circuit, a third circuit and a switching part, the switching part comprises a box body and a movable magnetic block arranged in the box body, the first circuit, the second circuit and the third circuit are all connected with the box body, and three breakpoints are sequentially formed in the length direction of the box body; wherein the movable magnetic block can move in the box body in the length direction of the box body and is used for being connected with the breakpoint so that the corresponding circuit can conduct electricity, the movable magnetic block in the initial state is connected with the breakpoint of the first circuit so that the timely response unit can work, and the control logic unit and the high-characteristic support unit can be powered off to enter a zero-power-consumption state.

Description

Technical Field

[0001] The present invention relates to the field of controller technology, and in particular to a 5G low-power edge computing controller. Background Art

[0002] The controller design in the prior art usually revolves around two core components: the mainboard and the power supply unit (PSU), which together constitute the basic architecture of the computer system.

[0003] The high bandwidth and low latency provided by 5G networks enable it to support applications that require extremely high computing resources, such as 4K / 8K video streaming, virtual reality (VR), augmented reality (AR), and autonomous driving. These applications not only increase the amount of data processing on terminal devices, but also lead to a significant increase in the workload of edge servers or dedicated computing units, thereby increasing power consumption.

[0004] In many cases, the calculations involved do not need to be implemented in a 5G environment. Some only need to interact directly with sensors. For example, when the temperature sensor detects that the temperature is too high, it directly controls the fan to start. The common method in the prior art is to reduce power consumption by mode switching, just as the patent publication number CN118331713A discloses a method and system for entering a low-power mode of a microcontroller. The method includes: during the operation of the microcontroller, before the corresponding task subsequence in the task execution sequence is executed, obtaining the microcontroller operating mode / low-power mode corresponding to the task subsequence, sending a mode entry instruction based on the operating mode to enable the microcontroller to enter the corresponding low-power mode, starting from the resource demand characteristics, guiding the entry into the operating mode or low-power mode through quantitative analysis based on the combination of dynamic and static information, thereby improving the accuracy of entering the operating mode or low-power mode.

[0005] However, because the microcontroller is a highly integrated single chip, it is difficult to split its different functional modules. This results in that even if some functional modules enter low power consumption, they are still in a semi-working state. In order to further reduce the power consumption level, especially in some industrial scenarios, it is more of a simple interaction with sensors, and then execution actions are performed through threshold setting. Therefore, how to further reduce the power consumption of computing controllers is an urgent problem that needs to be solved. Summary of the invention

[0006] The purpose of the present invention is to provide a 5G low-power edge computing controller, which enables three circuits to be flexibly switched through the sliding of active magnetic blocks, and in the initial state, the circuit connected to the timely response unit works, and the other two units are powered off, so that the other two units enter a state of zero power consumption.

[0007] To achieve the above objectives, a 5G low-power edge computing controller is provided, which at least includes:

[0008] A timely response unit is used to monitor the data of the input source and trigger the execution of actions;

[0009] A control logic unit performs analysis based on historical data stored in a database;

[0010] High-performance support unit, used to combine information from the entire network and external sources for comprehensive evaluation;

[0011] A first circuit, for connecting to a timely response unit;

[0012] A second circuit is used to connect the timely response unit and the control logic unit;

[0013] A third circuit is used to connect the timely response unit, the control logic unit and the high-performance support unit;

[0014] as well as,

[0015] The switching component includes a box body and a movable magnetic block arranged in the box body, the first circuit, the second circuit and the third circuit are all connected to the box body, and three breakpoints are sequentially formed along the length direction of the box body;

[0016] Wherein, the movable magnetic block can move along the length direction in the box body, and is used to connect the breakpoints to make the corresponding circuit conductive;

[0017] The active magnetic block in the initial state connects the breakpoint of the first circuit to enable the timely response unit to work, and the control logic unit and the high-performance support unit are powered off and enter a zero-power consumption state.

[0018] As a further improvement of the technical solution, a slide groove is provided in the box body, and a first fixed magnetic block and a second fixed magnetic block are respectively fixed on both sides of the slide groove;

[0019] The movable magnetic block can move freely between the first fixed magnetic block and the second fixed magnetic block;

[0020] The first fixed magnetic block and the second fixed magnetic block both generate a force of the same polarity that repels the movable magnetic block.

[0021] As a further improvement of the present technical solution, the first fixed magnetic block has variable magnetic strength, and the movable magnetic block and the second fixed magnetic block have fixed magnetic strength, so that the force balance state of the movable magnetic block is destroyed by changing the magnetic strength of the first fixed magnetic block, and then the movable magnetic block reaches the force balance state by moving to complete the connection with the breakpoint.

[0022] As a further improvement of the technical solution, three conductive blocks are respectively arranged on one side wall of the box body corresponding to the three breakpoints, and a long conductive sheet is arranged in the side wall of the box body opposite to the conductive blocks;

[0023] The long conductive sheet is of the same height as the conductive block and can cover the entire moving range of the active magnetic block;

[0024] It also includes a power supply, which is provided with a "-" pole, a positive pole A, a positive pole B and a positive pole C;

[0025] The long conductive sheet is connected to the “-” pole;

[0026] A short conductive sheet is arranged on the top of the movable magnetic block at the same height as the conductive block and the long conductive sheet, and the short conductive sheet is used to connect the conductive block and the long conductive sheet at the breakpoint.

[0027] As a further improvement of the present technical solution, the power supply is also provided with a "d+" positive pole and a "d-" negative pole, the positive pole terminal of the first fixed magnetic block is connected to the "d+" positive pole, and the negative pole terminal of the first fixed magnetic block is connected to the "d-" negative pole to form a current loop.

[0028] As a further improvement of the technical solution, a variable resistor R is provided on the current loop, which has three adjustable resistance values ​​R1, R2 and R3, and R1<R2<R3;

[0029] Among them, the unit needs to respond in time to work, which is the resistance value R1;

[0030] Need to control the logic unit to work, the resistance value is R2;

[0031] A high characteristic is required to support the unit operation, which is the resistance value R3.

[0032] As a further improvement of the technical solution, the movable magnetic block moves step by step between the three breakpoints.

[0033] As a further improvement of the present technical solution, the timely response unit constructs a database.

[0034] As a further improvement of the technical solution, the height of the box body is higher than the first fixed magnetic block, the second fixed magnetic block and the movable magnetic block, a top plate is provided on the top of the box body, and a first driving iron block and a second driving iron block are respectively provided on the outside of the first fixed magnetic block and the second fixed magnetic block in the slide groove;

[0035] A pressure plate is arranged between the first driving iron block and the second driving iron block in the box body, and a first wedge block and a second wedge block are arranged on the first driving iron block and the second driving iron block respectively, and the pressure plate overlaps the inclined surfaces of the first wedge block and the second wedge block;

[0036] The bottom of the top plate is fixedly connected with a telescopic base, the end of the telescopic base is connected with a pressing plate, and a spring is coaxially arranged outside the telescopic base.

[0037] As a further improvement of the technical solution, both sides of the top of the pressing plate are chamfered.

[0038] Compared with the prior art, the present invention has the following beneficial effects:

[0039] 1. In the 5G low-power edge computing controller, in the initial state, the circuit connected to the timely response unit works, and the other two units are powered off, so that the other two units enter a zero-power state, thereby achieving the purpose of further reducing power consumption. During adjustment, the magnetic strength of the first fixed magnetic block is changed to break the existing balance, prompting the active magnetic block to move to the next position and connect the corresponding circuit. Since this switching is based on physical contact, a new working path can be established very quickly.

[0040] 2. In the 5G low-power edge computing controller, when the system is in the initial state, only the timely response unit is connected to the power supply through the first circuit and remains active, while the control logic unit and the high-performance support unit are connected by the second and third circuits respectively but are in a power-off state. This means that except for the necessary sensor monitoring, other complex data processing tasks will not be executed temporarily, thereby saving a lot of power resources. BRIEF DESCRIPTION OF THE DRAWINGS

[0041] Figure 1 This is a schematic diagram of the structure of the computing controller of the present invention;

[0042] Figure 2 The second schematic diagram of the computing controller structure of the present invention;

[0043] Figure 3 is a schematic diagram of a circuit connection structure in a first equilibrium state of the present invention;

[0044] Figure 4 is a schematic diagram of a circuit connection structure in a second equilibrium state of the present invention;

[0045] Figure 5 is a schematic diagram of a circuit connection structure in a third equilibrium state of the present invention;

[0046] Figure 6 It is a schematic diagram of the structure of the switching component of the present invention;

[0047] Figure 7 For the present invention Figure 6 A magnified view of the structure at A;

[0048] Figure 8 It is a schematic diagram of the circuit structure of the first fixed magnetic block of the present invention. DETAILED DESCRIPTION

[0049] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0050] like Figure 1 As shown, the controller in the prior art is composed of a mainboard 100 and a power supply 200, which together constitute the basic architecture of the computer system. The high bandwidth and low latency provided by the 5G network significantly increase the workload of edge servers or dedicated computing units, thereby increasing power consumption. To this end, the present invention proposes a low-power edge computing controller suitable for 5G scenarios, specifically including:

[0051] The first embodiment, as Figure 2 As shown, the mainboard 100 is provided with a plurality of chip units, specifically including a timely response unit 600, a control logic unit 500 and a high-performance support unit 400. Figure 2 From the perspective of FIG. 4 , the timely response unit 600 , the control logic unit 500 and the high-performance support unit 400 are arranged on the main board 100 in sequence from bottom to top along a vertical line.

[0052] In addition, a switching component 300 is disposed on the main board 100 adjacent to the three chip units. Figure 3 As shown, a box body 310 is arranged on the main board 100 parallel to the longitudinal line. The box body 310 is fixed on the main board 100 by a snap connection. The box body 310 has a slide groove 317 (combined with Figure 6 As shown), then card slots (not shown in the figure) are provided on both sides of the slide slot 317, a first fixed magnet 330 is card-fastened in the upper card slot, and a second fixed magnet 340 is card-fastened in the lower card slot, and slideways (not shown in the figure) are provided on the two side walls inside the box body 310 between the two fixed magnets, or they may be slide bars (not shown in the figure), both of which are used to connect the movable magnet 350 (hereinafter referred to as the slideway), and the movable magnet 350 can move along the slideway or the slide bar.

[0053] like Figure 3 As shown, the N pole of the movable magnetic block 350 is at the top and the S pole is at the bottom; the N pole of the first fixed magnetic block 330 is at the bottom and the S pole is at the top, opposite to the N pole of the movable magnetic block 350; the S pole of the second fixed magnetic block 340 is at the top and the N pole is at the bottom, opposite to the S pole of the movable magnetic block 350, thereby forming a repulsive force of like poles.

[0054] Among them, the magnetic strength of the first fixed magnet 330 can be changed (variable magnetic strength), while the movable magnet 350 and the second fixed magnet 340 have fixed magnetic strength. In this way, the force balance state of the movable magnet 350 is destroyed by changing the magnetic strength of the first fixed magnet 330, and then a new breakpoint is found by moving along the slide to achieve a new force balance state.

[0055] At this time, if Figure 3 As shown, in this embodiment, three breakpoints are set on the slideway between the first fixed magnetic block 330 and the second fixed magnetic block 340 (if it is a slide bar, then the position is set on the side wall of the box body 310), which are breakpoints a, b and c, respectively. Breakpoints a, b and c are set in sequence from bottom to top; correspondingly, the movable magnetic block 350 forms three equilibrium states, the first equilibrium state is achieved at breakpoint a, the second equilibrium state is achieved at breakpoint b, and the third equilibrium state is achieved at breakpoint c, wherein:

[0056] In the first equilibrium state, the timely response unit 600 works and continuously monitors data from sensors or other input sources. These data may include physical quantities such as temperature, humidity, light intensity, etc., or status information from other systems. For the collected data, a series of thresholds are preset as simple judgment criteria. If the monitored results exceed the set threshold range, the corresponding action is immediately triggered, such as adjusting the fan speed, turning on the heater, or sending an alarm. This immediate response mechanism can help respond to emergencies quickly without waiting for further processing steps.

[0057] In the second equilibrium state, the control logic unit 500 works and uses the historical data stored in the local database for more in-depth analysis. The database here can support complex queries and statistical operations to help identify trends and patterns. By accessing this data set containing past behavior records, machine learning algorithms or other advanced analysis techniques are applied to predict future behavior or performance changes. For example, based on the effects of measures taken under the same conditions before, the optimal solution for the current situation is selected; or the occurrence pattern of abnormal events is identified, and preventive measures are taken in advance.

[0058] It is worth noting that in the second equilibrium state, the timely response unit 600 is still required to maintain real-time monitoring in order to make efficient decisions.

[0059] The third equilibrium state, high-performance support unit 400, when it comes to cross-device coordination, large-scale data set processing or global optimization problems in complex environments, it is necessary to rely on the powerful computing power and rich resources of the cloud computing platform. At this time, it is not limited to local information on a single node, but combined with information from the entire network and even external sources for comprehensive evaluation.

[0060] The high-performance support unit 400 uses the cloud service platform to provide distributed processing frameworks such as Hadoop and Spark, so that even with massive amounts of data at the PB level, tasks can be completed efficiently. More importantly, with the help of various AI / ML services deployed on the cloud, intelligent automatic control logic can be implemented, such as dynamic adjustment of thresholds, adaptive parameter configuration, etc. And because the cloud usually has better elasticity and scalability, it is easier to adapt to changing application scenarios and technological advances.

[0061] In summary, the timely response unit 600 is used to monitor the data of the input source and trigger the execution of the action;

[0062] The control logic unit 500 performs analysis based on the historical data stored in the database;

[0063] The high-performance support unit 400 is used to perform comprehensive evaluation based on information from the entire network and external sources.

[0064] The timely response unit 600 uses a microcontroller or a state machine to directly interact with the sensor to perform preliminary data filtering and preprocessing. The communication interface is equipped with SPI / I 2 C interface to communicate with the other two modules. If necessary, a UART port can also be added to facilitate debugging.

[0065] The control logic unit 500 uses a high-performance DSP (digital signal processor) or a small ARM Cortex-M series MCU to execute more complex algorithm calculations and decision-making. In addition to the same serial communication interface as the timely response unit 600, the communication interface should also have a DMA controller to facilitate fast data transfer; if necessary, a high-speed interface such as PCIe can also be introduced to connect to the high-performance support unit 400.

[0066] The high-performance support unit 400 adopts a wireless communication chipset (such as Wi-Fi / BT), a graphic display driver IC, etc., and is customized for specific applications. Therefore, the communication interface supports multiple communication methods, including but not limited to USB, HDMI, Ethernet, etc., to meet the diverse needs in the 5G environment.

[0067] Specifically, Figure 3-Figure 5 As shown, three conductive blocks (hereinafter referred to as a, b and c) are respectively arranged on one side wall of the box body 310 corresponding to the breakpoints a, b and c, and a long conductive sheet 318 is arranged in the side wall of the box body 310 opposite to the conductive blocks. The long conductive sheet 318 is arranged along the longitudinal line and is at the same height as the conductive block. It can cover the entire moving range of the active magnetic block 350. The "-" pole on the power supply 200 is connected to the long conductive sheet 318, and the power supply 200 also includes positive poles A, B and C.

[0068] In addition, a short conductive sheet is disposed on the top of the movable magnetic block 350 at the same height as the conductive block and the long conductive sheet 318 .

[0069] Among them, the positive electrode A is only electrically connected to the timely response unit 600 to form a first circuit, which is specifically realized by wires (the following electrical connections are all connected by wires), and the timely response unit 600 is then electrically connected to the conductive block a;

[0070] The positive electrode B is electrically connected to the timely response unit 600 and the control logic unit 500 to form a second circuit, and the timely response unit 600 and the control logic unit 500 are arranged in parallel and then electrically connected to the conductive block b after being connected in parallel;

[0071] The positive electrode C is electrically connected to the timely response unit 600, the control logic unit 500 and the high-characteristic support unit 400 to form a third circuit, and the timely response unit 600, the control logic unit 500 and the high-characteristic support unit 400 are arranged in parallel and then electrically connected to the conductive block c.

[0072] The above three circuits are connected to breakpoints a, b and c respectively.

[0073] Figure 3 The circuit connection structure of the first equilibrium state is shown. In the figure, the first fixed magnetic block 330 generates a first force that repels the movable magnetic block 350, and the second fixed magnetic block 340 generates a second force that repels the movable magnetic block 350. The first force and the second force cancel each other out at the conductive block a. At this time, one end of the short conductive sheet on the movable magnetic block 350 contacts the conductive block a. Because the other end of the short conductive sheet on the movable magnetic block 350 is always in contact with the long conductive sheet 318, a conductive circuit is formed between the positive electrode A and the "-" pole (see Figure 3 The timely response unit 600 keeps working.

[0074] The first force is reduced by adjusting the current. Under the action of the second force, the movable magnetic block 350 moves from the conductive block a to the conductive block b. Before reaching the conductive block b, it is disconnected from the conductive block a. When reaching the conductive block b, the first force and the second force are offset again, entering the second equilibrium state. Figure 4 FIG. 2 shows the circuit connection structure of the second equilibrium state. At this time, one end of the short conductive piece on the movable magnetic block 350 is in contact with the conductive block b. Because the other end of the short conductive piece on the movable magnetic block 350 is always in contact with the long conductive piece 318, a conductive circuit is formed between the positive electrode B and the “-” electrode (see FIG. Figure 4The timely response unit 600 and the control logic unit 500 remain in working state, and the timely response unit 600 and the control logic unit 500 are connected in parallel, so an unexpected power failure of any one will not affect the continued operation of the other, but the timely response unit 600 needs to maintain a continuous working state.

[0075] The first force is further reduced by adjusting the current. Under the action of the second force, the movable magnetic block 350 moves from the conductive block b to the conductive block c. Before reaching the conductive block c, it is disconnected from the conductive block b. When reaching the conductive block c, the first force and the second force are offset again, and the third equilibrium state is entered. Figure 5 FIG. 2 shows the circuit connection structure of the third equilibrium state. At this time, one end of the short conductive piece on the movable magnetic block 350 is in contact with the conductive block c. Because the other end of the short conductive piece on the movable magnetic block 350 is always in contact with the long conductive piece 318, a conductive circuit is formed between the positive electrode C and the “-” electrode (see FIG. Figure 5 As shown by the thick line in the middle, the timely response unit 600, the control logic unit 500 and the high-performance support unit 400 remain in working order. Similarly, the timely response unit 600, the control logic unit 500 and the high-performance support unit 400 are connected in parallel, so an unexpected power failure of any one of them will not affect the continued operation of the other two, but the timely response unit 600 needs to maintain a continuous working state.

[0076] It should be noted that if Figure 8 As shown, the positive terminal of the first fixed magnetic block 330 is connected to the positive pole "d+" on the power supply 200, and the negative terminal of the first fixed magnetic block 330 is connected to the negative pole "d-" on the power supply 200, thereby forming a current loop. When the current passes through the electromagnetic coil in the first fixed magnetic block 330, according to Ampere's law, this current will generate a circular magnetic field. Apply the right-hand spiral rule: stretch your right hand, let your thumb point to the direction of the current entering the solenoid coil (that is, the direction of the current), and then bend the other four fingers. The direction they circle represents the direction of the magnetic field line. The end of the coil pointed by the thumb is the N pole of the fixed magnetic block 330, and on the contrary, the other end is the S pole. In addition, the larger the current, the greater the first force will be, and conversely, the smaller the current, the smaller the first force will be.

[0077] To this end, a variable resistor R is set on a current loop to control the current size, which is specifically controlled by the timely response unit 600. Three adjustment resistance values ​​R1, R2 and R3 are set, and R1<R2<R3. The timely response unit 600 needs to work and the resistance value is R1. The control logic unit 500 needs to work and the resistance value is R2. The high-characteristic support unit 400 needs to work and the resistance value is R3.

[0078] And in the case of the resistance value R3, the second force can push the movable magnetic block 350 to move to the breakpoint c.

[0079] Preferably, the movable magnetic block 350 moves step by step between the three breakpoints.

[0080] Furthermore, in order to avoid data loss, all data are stored in a database constructed by the timely response unit 600 .

[0081] The second embodiment, as Figure 6 and Figure 7 As shown, on the basis of the first embodiment, the height of the box body 310 in this embodiment is higher than the first fixed magnetic block 330, the second fixed magnetic block 340 and the movable magnetic block 350, a top plate 311 is arranged on the top of the box body 310, and the first driving iron block 321 and the second driving iron block 322 are respectively arranged on the outside of the first fixed magnetic block 330 and the second fixed magnetic block 340 in the slide groove 317, and a pressure plate 320 is arranged between the first driving iron block 321 and the second driving iron block 322 in the box body 310, and the first wedge block 323 and the second wedge block 324 are respectively arranged on the first driving iron block 321 and the second driving iron block 322, and the pressure plate 320 overlaps the inclined surfaces of the first wedge block 323 and the second wedge block 324; as shown in FIG. Figure 7 As shown, a telescopic base 325 is fixedly connected to the bottom of the top plate 311, the end of the telescopic base 325 is connected to the pressure plate 320, and a spring 326 is coaxially arranged outside the telescopic base 325, one end of the spring 326 is fixedly connected to the pressure plate 320, and the other end is fixedly connected to the top plate 311.

[0082] When in use, an electric switch is set on the current loop where the variable resistor R is located. In the initial state, the movable magnetic block 350 is at the breakpoint a, and the current loop is in a power-off state. The pressing plate 320 squeezes the movable magnetic block 350 under the action of the spring 326 to fix it.

[0083] Because the variable resistor R can only be adjusted to the resistance value R2 at this time, the variable resistor R is adjusted to the resistance value R2 in advance. When it is necessary to enter the second equilibrium state, the current circuit is energized, and the first driving iron block 321 and the second driving iron block 322 are close to each other under the action of magnetic attraction, and the pressure plate 320 is lifted up with the help of the inclined surface. At the same time, the movable magnetic block 350 moves to the breakpoint b. After it is in place, the current circuit is de-energized, and the pressure plate 320 is reset to squeeze the movable magnetic block 350 to fix it.

[0084] Next, there are two possibilities in the second equilibrium state, one is to enter the third equilibrium state, and the other is to return to the first equilibrium state, so the timely response unit 600 determines whether the variable resistor R is adjusted to the resistance value R1 or the resistance value R3 according to the trend, so as to adjust the resistance value of the variable resistor R in advance. The subsequent action process of the pressure plate 320 is the same as when entering the second equilibrium state, so it will not be repeated here.

[0085] Finally, in the third equilibrium state, there is only one possibility, that is, adjusting the variable resistor R to the resistance value R2.

[0086] As preferred in this embodiment, Figure 7 As shown, both sides of the top of the pressing plate 320 are chamfered to form a curved surface 320a.

[0087] Further preferably, Figure 6 As shown, a first buffer pad 315 and a second buffer pad 316 are respectively provided on the inner wall of the box body 310 corresponding to the first driving iron block 321 and the second driving iron block 322 .

[0088] Further preferably, Figure 6 As shown, a bottom plate 312 is disposed at the bottom of the box body 310 .

[0089] In addition, a first isolation pad 313 and a second isolation pad 314 are respectively disposed between the top plate 311 and the box body 310 and between the bottom plate 312 and the box body 310 to reduce electromagnetic interference.

[0090] The above shows and describes the basic principles, main features and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited by the above embodiments. The above embodiments and descriptions are only preferred examples of the present invention and are not intended to limit the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which fall within the scope of the present invention. The scope of protection of the present invention is defined by the attached claims and their equivalents.

Claims

1. 5G low-power edge computing controller, characterized by: At least: A timely response unit (600) is used to monitor the data of the input source and trigger the execution of the action; A control logic unit (500) performs analysis based on historical data stored in a database; A high-performance support unit (400) for combining information from the entire network and external sources for comprehensive evaluation; A first circuit, used to connect to a timely response unit (600); A second circuit, used to connect the timely response unit (600) and the control logic unit (500); A third circuit, used to connect the timely response unit (600), the control logic unit (500) and the high-performance support unit (400); as well as, A switching component (300) comprises a box body (310) and a movable magnetic block (350) arranged in the box body (310); the first circuit, the second circuit and the third circuit are all connected to the box body (310), and three breakpoints are sequentially formed along the length direction of the box body (310); The movable magnetic block (350) is movable in the box body (310) along its length direction, and is used to connect the breakpoints to make the corresponding circuit conductive; The active magnetic block (350) in the initial state connects the breakpoint of the first circuit to enable the timely response unit (600) to operate, and the control logic unit (500) and the high-performance support unit (400) are powered off and enter a zero-power consumption state.

2. The 5G low-power edge computing controller according to claim 1, characterized in that: A slide groove (317) is provided in the box body (310), and a first fixed magnetic block (330) and a second fixed magnetic block (340) are respectively fixed on both sides of the slide groove (317); The movable magnetic block (350) is capable of freely moving between the first fixed magnetic block (330) and the second fixed magnetic block (340); The first fixed magnetic block (330) and the second fixed magnetic block (340) both generate a repulsive force of the same polarity with the movable magnetic block (350).

3. The 5G low-power edge computing controller according to claim 2, characterized in that: The first fixed magnetic block (330) has a variable magnetic strength, and the movable magnetic block (350) and the second fixed magnetic block (340) have fixed magnetic strengths, so that the force balance state of the movable magnetic block (350) is destroyed by changing the magnetic strength of the first fixed magnetic block (330), and then the movable magnetic block (350) reaches a force balance state by moving, thereby completing the connection with the breakpoint.

4. The 5G low-power edge computing controller according to claim 3, characterized in that: Three conductive blocks are respectively arranged on one side wall of the box body (310) corresponding to the three breakpoints, and a long conductive sheet (318) is arranged in the side wall of the box body (310) opposite to the conductive blocks; The long conductive sheet (318) is as high as the conductive block and can cover the entire moving range of the movable magnetic block (350); It also includes a power supply (200), on which a "-" pole, a positive pole A, a positive pole B and a positive pole C are provided; The long conductive sheet (318) is connected to the "-" pole; A short conductive sheet is arranged on the top of the movable magnetic block (350) at the same height as the conductive block and the long conductive sheet (318), and the short conductive sheet is used to connect the conductive block and the long conductive sheet (318) at the breakpoint.

5. The 5G low-power edge computing controller according to claim 4, characterized in that: The power source (200) is also provided with a "d+" positive pole and a "d-" negative pole, the positive pole terminal of the first fixed magnetic block (330) is connected to the "d+" positive pole, and the negative pole terminal of the first fixed magnetic block (330) is connected to the "d-" negative pole, so as to form a current loop.

6. The 5G low-power edge computing controller according to claim 5, characterized in that: The current loop is provided with a variable resistor R, which has three adjustable resistance values ​​R1, R2 and R3, and R1<R2<R3; Wherein, the timely response unit (600) needs to work, which is the resistance value R1; The control logic unit (500) needs to work, and the resistance value is R2; A high characteristic is required to support the unit (400) to work, which is a resistance value R3.

7. The 5G low-power edge computing controller according to claim 1, characterized in that: The movable magnetic block (350) moves step by step between the three breakpoints.

8. The 5G low-power edge computing controller according to claim 1, characterized in that: The timely response unit (600) constructs a database.

9. The 5G low-power edge computing controller according to claim 3, characterized in that: The height of the box body (310) is higher than the first fixed magnetic block (330), the second fixed magnetic block (340) and the movable magnetic block (350); a top plate (311) is arranged on the top of the box body (310); and a first driving iron block (321) and a second driving iron block (322) are respectively arranged on the outside of the first fixed magnetic block (330) and the second fixed magnetic block (340) in the slide groove (317); A pressure plate (320) is arranged between the first driving iron block (321) and the second driving iron block (322) in the box body (310); a first wedge block (323) and a second wedge block (324) are arranged on the first driving iron block (321) and the second driving iron block (322), respectively; and the pressure plate (320) overlaps the inclined surfaces of the first wedge block (323) and the second wedge block (324); A telescopic base (325) is fixedly connected to the bottom of the top plate (311), an end of the telescopic base (325) is connected to the pressing plate (320), and a spring (326) is coaxially arranged outside the telescopic base (325).

10. The 5G low-power edge computing controller according to claim 9, characterized in that: Both sides of the top of the pressing plate (320) are chamfered.

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