A computer power control device and method based on intelligent logical operations

Abstract

A computer power control device and method based on intelligent logical operations, belonging to the technical field of power control equipment. In order to solve the problem that when connecting cables of existing power control equipment, the inner core wires at the ends need to be repeatedly wound around screws and then installed with tools, which is rather troublesome when there are many cables to be connected to the equipment and affects the subsequent maintenance and disassembly efficiency of the equipment; in the present invention, the power control host is electrically connected to the convenient wiring terminal based on an automatic control switch. After opening the movable end cover on the top of the power control box, only the main cables of each power-consuming branch line need to be inserted into the inner cavity of the convenient wiring terminal, and by rotating and adjusting the corresponding cable connectors inside the convenient wiring terminal, the cables of each power-consuming branch line can be quickly connected. It is convenient and practical, effectively avoiding the troublesomeness of the existing power control equipment when installing and connecting by relying on the inner core wires to wind around the fixing screws, as well as the problems of the inner core wires of the cables being wound and distorted and the screws being squeezed and broken, which affect the use.

Description

Technical Field

[0001] The present invention relates to the technical field of power control devices, and specifically, to a computer power control device based on intelligent logic operation and a method thereof. Background Art

[0002] An electronic component that can open a circuit, interrupt an electric current, or cause it to flow to other circuits. The most common switch is an electromechanical device operated by a person, which has one or several electronic contacts. The "closure" of the contacts indicates that the electronic contacts are conducting and allows the current to flow through. The "open circuit" of the switch indicates that the electronic contacts are not conducting to form an open circuit and does not allow the current to flow through.

[0003] When connecting the power cables to the existing power control devices, the common usage is to first wind the inner core wire at the end of the cable around the outer wall of the fixing screw, and then install the fixing screw in the fixing groove of the terminal block through a screwdriver. The inner core wire at the end of the cable is contact-extruded by the installation of the fixing screw and the fixing groove, so that the inner core wire at the end of the cable contacts and conducts electricity with the conductive part of the terminal block. However, when connecting the cables, it is necessary to wind the inner core wire multiple times and also use additional tools for fixing operations. When connecting a large number of cables, it is more troublesome to implement, which affects the subsequent maintenance and disassembly efficiency of the equipment.

[0004] Therefore, we propose a computer power control device based on intelligent logic operation and a method thereof. Summary of the Invention

[0005] The purpose of the present invention is to provide a computer power control device based on intelligent logic operation and a method thereof, aiming to solve the problem in the above background art that when connecting the cables to the existing power control devices, it is necessary to repeatedly wind the inner core wire at the end of the cable around the screw and then use tools for installation operations. When connecting a large number of cables to the equipment, it is more troublesome to implement and affects the subsequent maintenance and disassembly efficiency of the equipment.

[0006] To achieve the above purpose, the present invention provides the following technical solution: A computer power control device based on intelligent logic operation, including a power control box and a shock-absorbing plate fixedly connected to the bottom plate of the power control box. A transformer is fixedly installed on one side of the upper end of the shock-absorbing plate. A power control host is arranged on the upper end of the shock-absorbing plate on one side of the transformer. One end of the power control host extends through the front cover of the power control box to the outside. A display and control buttons are sequentially arranged on the side wall of the power control host outside the power control box. A protective backing plate is fixedly connected to the top of the power control host. Automatic control switches are fixedly connected to the top of the protective backing plate at intervals. The automatic control switches are electrically connected to the power control host, and a convenient wiring terminal is fixedly connected to the top of the automatic control switch. The automatic control switches are electrically connected to the power branch through the convenient wiring terminals.

[0007] Further, an incoming line penetrates through one side of the top of the power control box. The incoming line is electrically connected to the power control host, and a wireless transceiver is fixedly connected to the outer wall of one side of the power control box. The wireless transceiver is electrically connected to the power control host, and the power control host is remotely signal-connected to the monitoring host through the wireless transceiver.

[0008] Further, the automatic control switch includes a mounting seat fixedly connected to the top of the protective backing plate and electromagnets respectively fixedly connected to the top of the mounting seat. Positioning columns are respectively fixedly connected to the top of the mounting seat on both sides of the electromagnet. The top of the positioning column is fixedly connected with a mounting plate. Convenient wiring terminals are fixedly installed on both sides of the top of the mounting plate. The lower end of the convenient wiring terminal extends to the bottom of the mounting plate. A return spring is wound around the outer wall of the positioning column. A moving armature is movably penetrated through the outer wall of the positioning column above the return spring. The moving armature is electrically connected to the power control host through a wire.

[0009] Further, the convenient wiring terminal includes a conductive cylinder fixedly connected to the top of the mounting plate and a movable shaft movably arranged on the bottom plate of the conductive cylinder. A worm gear is fixedly connected to the outer wall of the movable shaft. One end of the worm gear is meshed with one end of a worm. The other end of the worm is movably sleeved in a guide cylinder on the side wall of the conductive cylinder. The end of the worm penetrates and extends to the outside of the guide cylinder. A conductive rod is fixedly connected to the top end of the movable shaft. Both ends of the conductive rod are attached to the inner wall of the conductive cylinder. A spiral wire-hanging rod is fixedly connected to the middle of the upper end of the conductive rod. The spiral wire-hanging rod is used for winding and connecting the inner core ring of the end of the electrical branch line. An annular partition is fixedly connected to the inner wall of the conductive cylinder above the spiral wire-hanging rod.

[0010] Further, mounting feet are fixedly connected to the outer walls of both sides of the conductive cylinder near the bottom. The conductive cylinder is fixedly connected to both sides of the top of the mounting plate through the mounting feet. A fixed contact is integrally fixedly connected to the lower end of the conductive cylinder. The lower end of the fixed contact penetrates and extends to the bottom of the mounting plate. The fixed contact is suspended above the contact on the top of the moving armature.

[0011] Further, an auxiliary part is fixedly connected to the side wall at the top of the conductive cylinder. The auxiliary part includes fixing frames fixedly connected to the outer walls of both sides at the top of the conductive cylinder. An installation shell is fixedly connected to the outer wall of one of the fixing frames of the conductive cylinder. A driving gear is movably arranged on the inner wall of the installation shell on the side away from the fixed end of the fixing frame. A winding rope is fixedly connected to the outer wall of the driving gear near the fixed end of the installation shell. The other end of the winding rope penetrates through the side wall of the fixed end of the installation shell and is fixedly connected to the side wall of the fixing frame on the other side of the conductive cylinder. A moving rod is arranged on one side of the driving gear. The upper and lower ends of the moving rod extend to the outside through the communication ports on the side wall of the installation shell. The lower end of the moving rod movably penetrates through the mounting plate and is fixedly connected to the top of the moving armature. The moving rod is meshed and connected with the driving gear through the protruding teeth on the side wall.

[0012] Further, the lashing rope is made by twisting two identical binding ropes. The two ends of the two binding ropes are respectively intertwined to form a single-strand thick-head rope, and the single-strand thick-head rope is used to fixedly connect the driving gear and the fixing frame. The two binding ropes in the middle section of the lashing rope are separated to form a binding opening for lashing the electrical branch line.

[0013] Further, the single-strand binding rope of the lashing rope includes a reinforcing inner core and flexible protrusions fixedly connected to the side wall of the reinforcing inner core at uniform intervals and staggered. The outer part of the reinforcing inner core and the flexible protrusions is wrapped with an abrasion-resistant fiber layer, and the end of the flexible protrusion penetrates and extends to the outside of the abrasion-resistant fiber layer.

[0014] Further, the power control host includes a computer chip for calculating and controlling operations, a power supply module electrically connected to the computer chip in sequence, and a data storage module for storing detection data. The power supply module is electrically connected to the incoming line. The computer chip is electrically connected to the automatic control switch and the wireless transceiver through the electrical control line and the communication interface line respectively. The computer chip is electrically connected to the display through the display processing module, and the computer chip is also electrically connected to the voltage detection module, the cable temperature detection unit and the current detection module in sequence. The voltage detection module, the cable temperature detection unit and the current detection module are respectively used to detect the real-time voltage, temperature and current data of each electrical branch line cable.

[0015] The present invention provides another technical solution: a usage method of a computer power control device based on intelligent logical operation, including the following implementation steps:

[0016] S1: After opening the movable end cover on the top of the power control box, the power control host controls the electromagnet to be energized to obtain magnetic force, and the electromagnet adsorbs the movable armature to move down along the positioning column, so that the convenient wiring terminal is disengaged from the circuit for power off;

[0017] S2: Insert the inner core ring at the end of each electrical branch line cable into the middle hole of the annular partition inside the conductive cylinder, so that the inner core ring at the end of the electrical branch line cable is suspended on one side of the spiral hanging rod inside the conductive cylinder;

[0018] S3: Rotate the worm outside the conductive cylinder, and the worm meshes with the worm wheel to drive the movable shaft to rotate. The movable shaft drives the spiral hanging rod to rotate based on the conductive rod. When the spiral hanging rod rotates, the end penetrates into the inner core ring at the end of the electrical branch line cable, so that the inner core ring at the end of the electrical branch line cable slides down along the spiral hanging rod and tightens;

[0019] S4: The power control host controls the electromagnet to be powered off, and the return spring pushes the movable armature to move up and make it fit the contact at the bottom of the conductive cylinder, thereby connecting the circuits of each electrical branch line;

[0020] S5: The power control host performs real-time detection on the voltage, current, and temperature data of each power-using branch line, and simultaneously calculates and analyzes the power consumption of each power-using branch line. When the power consumption of a power-using branch line exceeds the rated power threshold of the line, the power control host controls the automatic control switch to cut off the circuit of the corresponding power-using branch line.

[0021] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0022] A computer power control device and method based on intelligent logical operation proposed by the present invention. The power control host is electrically connected to the automatic control switch and the convenient terminal. After opening the movable end cover on the top of the power control box, only the main cable of each power-using branch line needs to be inserted into the inner cavity of the convenient terminal, and the corresponding cable connecting piece inside the convenient terminal is rotated and adjusted to quickly connect with the cable of each power-using branch line. It is convenient and practical, effectively avoiding the trouble of the existing power control equipment when installing and connecting by relying on the inner core wire to wind around the fixing screw, as well as the problems of the inner core wire of the cable being wound and distorted and the screw being squeezed and broken, which affect the use. After detecting the circuit data of each power-using branch line, the power control host performs real-time intelligent power supply switching control on each power-using branch line based on the automatic control switch. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 is a schematic diagram of the overall structure of the present invention;

[0024] Figure 2 is a schematic diagram of the internal structure of the power control box of the present invention;

[0025] Figure 3 is a schematic diagram of the closed state structure of the automatic control switch of the present invention;

[0026] Figure 4 is a schematic diagram of the open state structure of the automatic control switch of the present invention;

[0027] Figure 5 is a schematic diagram of the installation structure of the convenient terminal and the power-using branch line of the present invention;

[0028] Figure 6 is a partial sectional view structure diagram of the conductive cylinder of the present invention;

[0029] Figure 7 is a schematic diagram of the installation structure of the spiral wire hanging rod and the conductive rod of the present invention;

[0030] Figure 8 is a schematic diagram of the installation structure of the auxiliary part and the conductive cylinder of the present invention;

[0031] Figure 9 is a schematic diagram of the structure of the auxiliary part of the present invention;

[0032] Figure 10Schematic diagram of the internal structure of the installation shell of the present invention;

[0033] Figure 11 Cross-sectional view of a single-strand binding rope of the cable-twisting and fixing rope of the present invention;

[0034] Figure 12 Architecture diagram of the power control host of the present invention;

[0035] Figure 13 Schematic diagram of the control logic operation of the power control host of the present invention.

[0036] In the figure: 1. Power control box; 2. Shock-absorbing plate; 3. Transformer; 4. Power control host; 41. Computer chip; 42. Power module; 43. Data storage module; 44. Electric power control circuit; 45. Communication interface circuit; 46. Display processing module; 47. Voltage detection module; 48. Cable temperature detection unit; 49. Current detection module; 5. Display; 6. Control button; 7. Protective backing plate; 8. Automatic control switch; 81. Mounting base; 82. Electromagnet; 83. Positioning post; 84. Mounting plate; 85. Return spring; 86. Moving armature; 9. Convenient wiring terminal; 91. Conductive cylinder; 911. Mounting anchor; 912. Fixed contact; 913. Guide cylinder; 92. Moving shaft; 93. Worm gear; 94. Worm; 95. Conductive rod; 96. Spiral wire-hanging rod; 97. Annular partition; 98. Auxiliary part; 981. Fixed frame; 982. Installation shell; 983. Driving gear; 984. Cable-twisting and fixing rope; 9841. Reinforcing inner core; 9842. Flexible protrusion; 9843. Wear-resistant fiber layer; 985. Moving rod; 986. Communication port; 987. Raised tooth; 10. Electric power branch line; 11. Entrance line; 12. Wireless transceiver. Detailed implementation manners

[0037] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0038] As Figure 1 and Figure 2 shown, a computer power control device based on intelligent logic operation includes a square-structured power control box 1 and a shock-absorbing plate 2 fixedly connected to the bottom plate of the power control box 1. The shock-absorbing plate 2 is shock-proof based on the rubber backing plate at the bottom. On one side of the upper end of the shock-absorbing plate 2, a transformer 3 is fixedly installed. The transformer 3 is used to adjust the output voltage of the circuit.

[0039] In order to solve the problem that when connecting the cable of the existing power control device, the inner core wire of its end head needs to be repeatedly wound around the screw and then installed with tools, which is rather troublesome when connecting a large number of cables to the device and affects the subsequent disassembly and assembly efficiency of equipment maintenance, please refer to Figures 1 - 7 , and the following preferred technical solutions are provided:

[0040] On the upper end of the shock-absorbing plate 2 on one side of the transformer 3, there is a power control host 4. One end of the power control host 4 extends through to the outside of the front cover of the power control box 1. On the side wall of the power control host 4 outside the power control box 1, a display 5 and control buttons 6 are sequentially arranged. On the top of the power control host 4, there is a protective backing plate 7 fixedly connected. At intervals on the top of the protective backing plate 7, there are automatic control switches 8 fixedly connected in sequence. The automatic control switch 8 is electrically connected to the power control host 4, and on the top of the automatic control switch 8, there is a convenient wiring terminal 9 fixedly connected. The automatic control switch 8 is electrically connected to the power consumption branch line 10 through the convenient wiring terminal 9; on one side of the top of the power control box 1, there is an incoming line 11 passing through. The incoming line 11 is electrically connected to the power control host 4, and on the outer wall of one side of the power control box 1, there is a wireless transceiver 12 fixedly connected. The wireless transceiver 12 is electrically connected to the power control host 4. The power control host 4 is remotely signal-connected to the monitoring host through the wireless transceiver 12.

[0041] The automatic control switch 8 includes a mounting seat 81 fixedly connected to the top of the protective backing plate 7 and electromagnets 82 respectively fixedly connected to the top of the mounting seat 81. The electromagnets 82 are electrically connected to the power control host 4. On the top of the mounting seat 81 on both sides of the electromagnets 82, positioning columns 83 are respectively fixedly connected. At the top of the positioning columns 83, there is a mounting plate 84 fixedly connected. On both sides of the top of the mounting plate 84, convenient wiring terminals 9 are fixedly installed. The lower end of the convenient wiring terminal 9 extends to the bottom of the mounting plate 84, and a return spring 85 is wound around the outer wall of the positioning column 83. A moving armature 86 is movably penetrated through the outer wall of the positioning column 83 above the return spring 85. The moving armature 86 is electrically connected to the power control host 4 through a wire.

[0042] The convenient wiring terminal 9 includes a conductive cylinder 91 fixedly connected to the top of the mounting plate 84 and a movable shaft 92 movably arranged on the bottom plate of the conductive cylinder 91. The outside of the conductive cylinder 91 is insulated. On the outer wall of the movable shaft 92, a worm gear 93 is fixedly connected. One end of the worm gear 93 is meshed with one end of a worm 94. Both the worm gear 93 and the worm 94 are insulated. The other end of the worm 94 is movably sleeved in a guide cylinder 913 on the side wall of the conductive cylinder 91, and the end of the worm 94 extends through to the outside of the guide cylinder 913. At the top of the movable shaft 92, there is a conductive rod 95 fixedly connected. Both ends of the conductive rod 95 are attached to the inner wall of the conductive cylinder 91. Both ends of the conductive rod 95 are spherical structures. In the middle of the upper end of the conductive rod 95, there is a spiral wire-hanging rod 96 fixedly connected. The spiral wire-hanging rod 96 is used for winding and connecting the inner core ring at the end of the power consumption branch line 10 for conducting wires. On the inner wall of the conductive cylinder 91 above the spiral wire-hanging rod 96, there is an annular partition plate 97 fixedly connected.

[0043] On both outer walls of the conductive cylinder 91 near the bottom, there are fixedly connected mounting feet 911. The conductive cylinder 91 is fixedly connected to both sides of the top of the mounting plate 84 through the mounting feet 911. And a fixed contact 912 is integrally fixedly connected to the lower end of the conductive cylinder 91. The lower end of the fixed contact 912 extends through to the bottom of the mounting plate 84, and the fixed contact 912 is suspended above the contact point on the top of the moving armature 86.

[0044] Specifically, open the movable end cover at the top of the power control box 1. The control power host 4 controls the electromagnet 82 to be energized to obtain magnetic force. The electromagnet 82 attracts the moving armature 86 to move downward along the positioning column 83. The contact on the top of the moving armature 86 is separated from the fixed contact 912 at the bottom of the conductive cylinder 91, realizing the overall power-off separation of the convenient terminal 9. Then, insert the inner core ring at the end of the cable of each power-consuming branch line 10 into the middle hole of the annular partition 97 inside the conductive cylinder 91, so that the inner core ring at the end of the cable of the power-consuming branch line 10 is suspended on one side of the spiral wire-hanging rod 96 inside the conductive cylinder 91. Rotate the worm 94 outside the conductive cylinder 91. The worm 94 meshes with the worm gear 93 to drive the movable shaft 92 to rotate. The movable shaft 92 drives the spiral wire-hanging rod 96 to rotate based on the conductive rod 95. When the spiral wire-hanging rod 96 rotates, the end penetrates into the inner core ring at the end of the cable of the power-consuming branch line 10, so that the inner core ring at the end of the cable of the power-consuming branch line 10 slides down along the spiral wire-hanging rod 96 and is tightened. The control power host 4 controls the electromagnet 82 to be powered off. The return spring 85 pushes the moving armature 86 to move upward, and makes the contact on the top of the moving armature 86 fit the conductive rod 95 at the bottom of the conductive cylinder 91. The control power host 4 connects the circuits of each power-consuming branch line 10 based on the conductive conduction of the conductive cylinder 91, the conductive rod 95 and the spiral wire-hanging rod 96. When it is necessary to disassemble and repair the control power host 4, rotate the worm 94 in the reverse direction to drive the spiral wire-hanging rod 96 to rotate, and the inner core ring at the end of the cable of the power-consuming branch line 10 is separated from the spiral wire-hanging rod 96, then the control power host 4 can be disassembled. It is not necessary to repeatedly wind and fix the inner core of the cable with screws and use tools for installation, which is time-consuming. At the same time, it prevents the problem that the inner core wire of the cable is repeatedly twisted and squeezed and broken, affecting the use. It is convenient for the quick disassembly and connection of the cable when the control power host 4 is overhauled, which is convenient and fast.

[0045] In Figure 5 and Figures 8 - 10 the shown embodiment, the protection object of the embodiment is the auxiliary part 98. The auxiliary part 98 operates synchronously with the opening and closing of the automatic control switch 8 to assist in fixing the end of the cable of the power-consuming branch line 10 and ensure the stable connection of the cable of the power-consuming branch line 10.

[0046] On the side wall at the top of the conductive cylinder 91, there is a fixed connection with an auxiliary part 98. The auxiliary part 98 includes fixing brackets 981 fixedly connected to the outer walls on both sides at the top of the conductive cylinder 91. On the outer wall of the fixing bracket 981 on one side of the conductive cylinder 91, there is a fixed connection with an installation shell 982. On the inner wall of the installation shell 982 on the side away from the fixed end of the fixing bracket 981, there is a movable drive gear 983. On the outer wall of the drive gear 983 on the side close to the fixed end of the installation shell 982, there is a fixed connection with a winding and fixing rope 984. The other end of the winding and fixing rope 984 passes through the side wall of the fixed end of the installation shell 982 and is fixedly connected to the side wall of the fixing bracket 981 on the other side of the conductive cylinder 91. On one side of the drive gear 983, there is a moving rod 985. The upper and lower ends of the moving rod 985 extend to the outside through the communication ports 986 on the side wall of the installation shell 982. The lower end of the moving rod 985 movably passes through the installation plate 84 and is fixedly connected to the top of the moving armature 86, and the moving rod 985 is meshed and connected with the drive gear 983 through the protruding teeth 987 on the side wall.

[0047] The winding and fixing rope 984 is made by twisting two identical binding ropes. The two ends of the two binding ropes are respectively intertwined and twisted to form a single-strand thick head rope. The single-strand thick head rope is used for fixedly connecting the drive gear 983 and the fixing bracket 981, and the two binding ropes in the middle section of the winding and fixing rope 984 are separated to form a binding opening for winding and fixing the power supply branch line 10. When the moving armature 86 fits against the bottom of the conductive cylinder 91, the two binding ropes in the middle section of the winding and fixing rope 984 are twisted and locked to the power supply branch line 10. On the contrary, the two binding ropes in the middle section of the winding and fixing rope 984 are separated.

[0048] Specifically, when the moving armature 86 moves downward and separates from the contact at the bottom of the conductive cylinder 91, the moving armature 86 drives the moving rod 985 to move downward synchronously. When the moving rod 985 moves downward, it drives the drive gear 983 to rotate by using the protruding teeth 987. When the drive gear 983 rotates, it drives the winding and fixing rope 984 to rotate, so that the twisted and intertwined state of the two binding ropes in the middle section of the winding and fixing rope 984 is released and they are separated from each other. After inserting the cable of the power supply branch line 10 into the conductive cylinder 91 for connection, the moving armature 86 is adjusted to move upward and resumes contact connection with the contact at the bottom of the conductive cylinder 91, and the moving rod 985 moves upward synchronously to drive the drive gear 983 to rotate in the reverse direction, so that the two binding ropes in the middle section of the winding and fixing rope 984 are twisted and intertwined around the cable of the power supply branch line 10 again. Through the linkage control of the automatic control switch 8, the automatic locking control of the cable of the power supply branch line 10 is realized, ensuring the stable connection of the cable of the power supply branch line 10 in the conductive cylinder 91, which is convenient and practical.

[0049] To further promote the locking effect of the winding and fixing rope 984 on the cable of the power supply branch line 10, as in Figure 11In the illustrated embodiment, the single-strand binding rope of the lashing rope 984 includes a reinforcing inner core 9841 and flexible protrusions 9842 fixedly connected to the side wall of the reinforcing inner core 9841 at uniform intervals and staggered. An abrasion-resistant fiber layer 9843 is provided outside the reinforcing inner core 9841 and the flexible protrusions 9842, and the ends of the flexible protrusions 9842 penetrate and extend to the outside of the abrasion-resistant fiber layer 9843.

[0050] Specifically, when the two binding ropes in the middle section of the lashing rope 984 are twisted and stranded, the abrasion-resistant fiber layer 9843 on the outside of the single-strand binding rope contacts the outer wall of the power supply branch line 10 cable to prevent contact slippage. At the same time, the flexible protrusions 9842 on the outer wall of the reinforcing inner core 9841 are in different positions of the power supply branch line 10 cable after being twisted. After the double-strand binding rope is stranded, the flexible protrusions 9842 clamp the power supply branch line 10 cable alternately from different positions to prevent slippage after the lashing rope 984 locks the power supply branch line 10 cable, further ensuring the stability of the connection of the power supply branch line 10 cable.

[0051] To achieve automatic cut-off control when the circuit is overloaded, as shown in Figure 1 、 Figure 2 and Figures 12 - 13 shown, the following preferred technical solutions are provided:

[0052] The power control host 4 includes a computer chip 41 for calculating and controlling operations, a power module 42 electrically connected to the computer chip 41 in sequence, and a data storage module 43 for storing detection data. The power module 42 is electrically connected to the incoming line 11. The computer chip 41 is electrically connected to the automatic control switch 8 and the wireless transceiver 12 through a power control line 44 and a communication interface line 45 respectively. The computer chip 41 is electrically connected to the display 5 through a display processing module 46, and the computer chip 41 is also electrically connected to a voltage detection module 47, a cable temperature detection unit 48, and a current detection module 49 in sequence. The voltage detection module 47, the cable temperature detection unit 48, and the current detection module 49 are respectively used to detect the real-time voltage, temperature, and current data of each power supply branch line 10 cable.

[0053] Specifically, after the power control host 4 connects the cables of each power consumption branch line 10 based on the automatic control switch 8 and the convenient terminal 9, the voltage detection module 47, the cable temperature detection unit 48, and the current detection module 49 respectively detect the real-time voltage, temperature, and current data of the cables of each power consumption branch line 10, and transmit the relevant data to the computer chip 41. After receiving the data, the computer chip 41 calculates the load power of each power consumption branch line 10 in real time, and converts and processes the corresponding data through the display processing module 46 for display on the display 5. When the power consumption of each power consumption branch line 10 exceeds the rated power threshold of the line or the cable temperature is too high, the power control host 4 controls the automatic control switch 8 to cut off the circuit of the corresponding power consumption branch line 10, thereby preventing the cables of the power consumption branch line 10 from being overloaded or overheated and causing safety accidents. The computer chip 41 also connects to the wireless transceiver 12 through the communication interface line 45 to send data, so as to remotely alarm the monitoring host and notify the management personnel to turn off some unnecessary electrical equipment in time to reduce the power consumption, thereby realizing the safe and intelligent control of the power consumption branch line 10 and making it convenient to use.

[0054] To better demonstrate the computer power control device based on intelligent logic operation, this embodiment provides a usage method of the computer power control device based on intelligent logic operation, including the following implementation steps:

[0055] Step 1: After opening the movable end cover on the top of the power control box 1, the power control host 4 controls the electromagnet 82 to be energized to obtain magnetic force. The electromagnet 82 adsorbs the moving armature 86 and moves it downward along the positioning column 83, so that the convenient terminal 9 is separated from the line and powered off;

[0056] Step 2: Insert the inner core ring at the end of the cable of each power consumption branch line 10 into the middle hole of the annular partition 97 inside the conductive cylinder 91, so that the inner core ring at the end of the cable of the power consumption branch line 10 is suspended on one side of the spiral hanging rod 96 inside the conductive cylinder 91;

[0057] Step 3: Rotate the worm 94 outside the conductive cylinder 91. The worm 94 meshes with the worm gear 93 to drive the movable shaft 92 to rotate. The movable shaft 92 drives the spiral hanging rod 96 to rotate based on the conductive rod 95. When the spiral hanging rod 96 rotates, the end penetrates into the inner core ring at the end of the cable of the power consumption branch line 10, so that the inner core ring at the end of the cable of the power consumption branch line 10 slides down along the spiral hanging rod 96 and tightens;

[0058] Step 4: The power control host 4 controls the electromagnet 82 to be powered off. The return spring 85 pushes the moving armature 86 upward and makes it fit the contact at the bottom of the conductive cylinder 91, thereby connecting the circuits of each power consumption branch line 10;

[0059] Step Five: The power control host 4 detects the voltage, current, and temperature data of each power-using branch line 10 in real time, and simultaneously calculates and analyzes the power consumption of each power-using branch line 10. When the power consumption of each power-using branch line 10 exceeds the rated power of the line, the power control host 4 controls the automatic control switch 8 to cut off the circuit of the corresponding power-using branch line 10.

[0060] It should be noted that in this text, relational terms such as first and second are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any actual relationship or order between these entities or operations. Moreover, the term "comprising", "including" or any other variant thereof is intended to cover non-exclusive inclusion, so that a process, method, article or device comprising a series of elements not only includes those elements, but also includes other elements not expressly listed, or elements inherent to such process, method, article or device.

[0061] Although the embodiments of the present invention have been shown and described, those of ordinary skill in the art can understand that various changes, modifications, substitutions, and variations can be made to these embodiments without departing from the principles and spirit of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A computer power control device based on intelligent logical operations, comprising a power control box (1) and a shock-absorbing plate (2) fixedly connected to the bottom plate of the power control box (1). One side of the upper end of the shock-absorbing plate (2) is fixedly installed with a transformer (3), and it is characterized in that: At the upper end of the shock-absorbing plate (2) on one side of the transformer (3), there is a power control host (4). One end of the power control host (4) penetrates and extends to the outside of the front cover of the power control box (1). On the side wall of the power control host (4) outside the power control box (1), a display (5) and control buttons (6) are sequentially arranged. At the top of the power control host (4), a protective backing plate (7) is fixedly connected. At the top of the protective backing plate (7), automatic control switches (8) are fixedly connected at intervals in sequence. The automatic control switches (8) are electrically connected to the power control host (4), and at the top of the automatic control switch (8), a convenient wiring terminal (9) is fixedly connected. The automatic control switch (8) is electrically connected to the power branch line (10) through the convenient wiring terminal (9). The automatic control switch (8) includes a mounting base (81) fixedly connected to the top of the protective backing plate (7) and an electromagnet (82) respectively fixedly connected to the top of the mounting base (81). On the top of the mounting base (81) on both sides of the electromagnet (82), positioning columns (83) are respectively fixedly connected. The top ends of the positioning columns (83) are fixedly connected with a mounting plate (84). On both sides of the top end of the mounting plate (84), convenient wiring terminals (9) are fixedly installed. The lower ends of the convenient wiring terminals (9) extend to the bottom of the mounting plate (84). And a return spring (85) is wound around the outer wall of the positioning column (83). A moving armature (86) is movably penetrated through the outer wall of the positioning column (83) above the return spring (85). The moving armature (86) is electrically connected to the power control host (4) through a wire. The convenient wiring terminal (9) includes a conductive cylinder (91) fixedly connected to the top end of the mounting plate (84) and a movable shaft (92) movably arranged on the bottom plate of the conductive cylinder (91). A worm gear (93) is fixedly connected to the outer wall of the movable shaft (92). One end of the worm gear (93) is meshed with one end of a worm (94). The other end of the worm (94) is movably sleeved in a guide cylinder (913) on the side wall of the conductive cylinder (91). And the end of the worm (94) penetrates and extends to the outside of the guide cylinder (913). At the top end of the movable shaft (92), a conductive rod (95) is fixedly connected. Both ends of the conductive rod (95) are attached to the inner wall of the conductive cylinder (91). In the middle of the upper end of the conductive rod (95), a spiral wire-hanging rod (96) is fixedly connected. The spiral wire-hanging rod (96) is used for winding and connecting the inner core ring at the end of the power branch line (10). Above the spiral wire-hanging rod (96), an annular partition plate (97) is fixedly connected to the inner wall of the conductive cylinder (91). On both outer walls of the conductive cylinder (91) near the bottom, mounting feet (911) are fixedly connected. The conductive cylinder (91) is fixedly connected to both sides of the top of the mounting plate (84) through the mounting feet (911). And a fixed contact (912) is integrally fixedly connected to the lower end of the conductive cylinder (91). The lower end of the fixed contact (912) penetrates and extends to the bottom of the mounting plate (84). And the fixed contact (912) is suspended above the top contact of the moving armature (86).

2. The computer power control device based on intelligent logical operation according to claim 1, wherein: One side of the top of the power control box (1) is provided with an incoming line (11) running through it. The incoming line (11) is electrically connected to the power control host (4). And a wireless transceiver (12) is fixedly connected to the outer wall of one side of the power control box (1). The wireless transceiver (12) is electrically connected to the power control host (4). The power control host (4) is remotely signal-connected to the monitoring host through the wireless transceiver (12).

3. The computer power control device based on intelligent logical operation according to claim 1, characterized in that: An auxiliary part (98) is fixedly connected to the side wall at the top of the conductive cylinder (91). The auxiliary part (98) includes fixing frames (981) fixedly connected to the outer walls on both sides at the top of the conductive cylinder (91). An installation shell (982) is fixedly connected to the outer wall of the fixing frame (981) on one side of the conductive cylinder (91). A driving gear (983) is movably arranged on the inner wall of the installation shell (982) on the side far from the fixed end of the fixing frame (981). A winding fixing rope (984) is fixedly connected to the outer wall of the driving gear (983) on the side close to the fixed end of the installation shell (982). The other end of the winding fixing rope (984) runs through the side wall of the fixed end of the installation shell (982) and is then fixedly connected to the side wall of the fixing frame (981) on the other side of the conductive cylinder (91). A moving rod (985) is arranged on one side of the driving gear (983). The upper and lower ends of the moving rod (985) extend to the outside through the communication ports (986) on the side wall of the installation shell (982). The lower end of the moving rod (985) movably runs through the installation plate (84) and is then fixedly connected to the top of the moving armature (86). And the moving rod (985) is meshed and connected with the driving gear (983) through the raised teeth (987) on the side wall.

4. The computer power control device based on intelligent logical operation according to claim 3, characterized in that: The winding fixing rope (984) is made by twisting two identical binding ropes. The two ends of the two binding ropes are respectively intertwined to form a single-strand thick head rope. The single-strand thick head rope is used to fixedly connect the driving gear (983) and the fixing frame (981). And the two binding ropes in the middle section of the winding fixing rope (984) are separated to form a binding opening for winding and fixing the power consumption branch line (10).

5. The computer power control device based on intelligent logic operation according to claim 4, wherein: The single-strand binding rope of the winding fixing rope (984) includes a reinforcing inner core (9841) and flexible protrusions (9842) fixedly connected to the side wall of the reinforcing inner core (9841) at uniform intervals and staggered. The reinforcing inner core (9841) and the flexible protrusions (9842) are wrapped with a wear-resistant fiber layer (9843). The ends of the flexible protrusions (9842) run through and extend to the outside of the wear-resistant fiber layer (9843).

6. The computer power control device based on intelligent logic operation according to claim 2, characterized in that: The power control host (4) includes a computer chip (41) for calculating and controlling operations, a power supply module (42) electrically connected to the computer chip (41) in sequence, and a data storage module (43) for storing detected data. The power supply module (42) is electrically connected to the incoming line (11). The computer chip (41) is electrically connected to the automatic control switch (8) and the wireless transceiver (12) through an electrical control line (44) and a communication interface line (45) respectively. The computer chip (41) is electrically connected to the display (5) through a display processing module (46), and the computer chip (41) is also electrically connected to a voltage detection module (47), a cable temperature detection unit (48), and a current detection module (49) in sequence. The voltage detection module (47), the cable temperature detection unit (48), and the current detection module (49) are respectively used to detect the real-time voltage, temperature, and current data of the cables of each power consumption branch line (10).

7. A method for using a computer power control device based on intelligent logical operations as described in claim 1, characterized in that, The following implementation steps are included: S1: After opening the movable end cover on the top of the power control box (1), the power control host (4) controls the electromagnet (82) to be energized to obtain magnetic force. The electromagnet (82) adsorbs the movable armature (86) and moves it downward along the positioning column (83), so that the convenient terminal (9) is separated from the circuit for power-off; S2: Insert the inner core ring of the end of the cable of each power consumption branch line (10) into the middle hole of the annular partition (97) inside the conductive cylinder (91), so that the inner core ring of the end of the cable of the power consumption branch line (10) is suspended on one side of the spiral hanging wire rod (96) inside the conductive cylinder (91); S3: Rotate the worm (94) outside the conductive cylinder (91). The worm (94) meshes with the worm wheel (93) to drive the movable shaft (92) to rotate. The movable shaft (92) drives the spiral hanging wire rod (96) to rotate based on the conductive rod (95). When the spiral hanging wire rod (96) rotates, the end penetrates into the inner core ring of the end of the cable of the power consumption branch line (10), so that the inner core ring of the end of the cable of the power consumption branch line (10) slides down along the spiral hanging wire rod (96) and tightens; S4: The power control host (4) controls the electromagnet (82) to be powered off. The return spring (85) pushes the movable armature (86) upward and makes it fit the bottom contact of the conductive cylinder (91), thereby connecting the circuits of each power consumption branch line (10); S5: The power control host (4) detects the voltage, current, and temperature data of each power consumption branch line (10) in real time, and at the same time calculates and analyzes the power consumption of each power consumption branch line (10). When the power consumption of each power consumption branch line (10) exceeds the rated power threshold of the line, the power control host (4) controls the automatic control switch (8) to cut off the circuit of the corresponding power consumption branch line (10).

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