A database centralized management center based on ARM

Abstract

The present invention provides an ARM-based database centralized management center, which solves the problem of inconvenient wiring in a data center, and includes a computer room and cabinets arranged in a matrix in the computer room, each cabinet is respectively equipped with an ARM management module, the ARM management module is connected to a sensing module through a communication bus, the sensing module has a built-in line detection module, a wire mechanism is installed at the back of the cabinet, and the line detection module is opposite to the wire mechanism. The present invention has the advantages of convenient wiring and can meet the complex topology wiring structure.

Description

Technical Field

[0001] The invention belongs to the technical field of database management, and in particular relates to an ARM-based centralized database management center. Background Art

[0002] Data centers usually occupy a room, one or more floors, or even an entire building. Most of the equipment is often placed in racks with 19-inch compartments. These racks are placed in rows to form a corridor. This allows people to access the compartments from the front or back. Servers vary greatly in size from 1U servers to independent silo storage devices, which take up many floor tiles. Some equipment, such as large computers and storage devices, are often as large as their racks and are placed next to them. Very large data centers can use containers to store, each of which can hold 1,000 or more servers; when maintenance or upgrades are needed, the entire container will be replaced instead of repairing a single server. Locally compiled code can control the minimum rise limit. The existing database wiring method usually adopts one-time wiring, which can save a large amount of computer room rack space, but in the actual wiring process, this wiring method cannot meet the complex topology wiring requirements of the organization and is inconvenient for later maintenance. In addition, for large databases, the conventional wiring method has low wiring efficiency and cannot effectively monitor the wiring status.

[0003] In order to solve the deficiencies of the existing technology, people have conducted long-term exploration and proposed various solutions. For example, a Chinese patent document discloses an integrated wiring device for data center equipment [201720429673.8], which includes a data center equipment body, a wiring trough is arranged on the top of the data center equipment body along its width direction, a row of wiring holes are arranged in parallel on one side of the wiring trough, the wiring trough and the wiring holes are arranged alternately, and wiring insertion holes are arranged at equal distances on the side wall of the wiring trough close to the wiring holes, and the position of the wiring insertion holes corresponds to the position of the wiring holes, and the upper side of the wiring trough is set as an opening.

[0004] The above solution solves the problem of data center wiring monitoring to a certain extent, but the solution still has many shortcomings, such as being unable to meet the wiring requirements of complex topology structures. Summary of the invention

[0005] The purpose of the present invention is to provide an ARM-based centralized database management center that is reasonably designed and adaptable to complex topology wiring structures in order to solve the above problems.

[0006] To achieve the above purpose, the present invention adopts the following technical solutions: an ARM-based centralized database management center, including a computer room and cabinets arranged in a matrix in the computer room, each cabinet is equipped with an ARM management module, the ARM management module is connected to the sensing module through a communication bus, the sensing module has a built-in line detection module, a wire mechanism is installed on the back of the cabinet, and the line detection module is opposite to the wire mechanism. The cabinet guides the wiring through the wire mechanism on the back, and the wire mechanism monitors the wiring status in real time. The ARM management module manages the wiring of the data center, and has a good control effect on the complex topology wiring structure.

[0007] In the above-mentioned ARM-based database centralized management center, the wire mechanism includes a wire board installed on the back of the cabinet, and the wire board is internally installed with parallel wire assemblies and independent wire assemblies through a three-dimensional support assembly, an isolation assembly is arranged between the parallel wire assembly and the independent wire assembly, and a wire frame is arranged at the upper end of the cabinet. The parallel wire assembly and the independent wire assembly in the wire mechanism meet the requirements of parallel wiring and independent wiring, and they do not interfere with each other, which is convenient for maintenance personnel to manage the wires.

[0008] In the above-mentioned ARM-based database centralized management center, the wire board includes a hollow interior and is divided into a primary wiring cavity and a secondary wiring cavity by a vertically arranged partition frame plate, and the three-dimensional support component is arranged between the primary wiring cavity and the secondary wiring cavity. The wire board realizes double-layer wiring, and can realize wiring of a large number of cabinets in conjunction with the switch.

[0009] In the above-mentioned ARM-based centralized database management center, the three-dimensional support component includes a support shaft passing through the primary wiring cavity and the secondary wiring cavity, a support frame fixedly connected to the support shaft is arranged in the wire board, and the wire board is closed by a detachable cover plate at the front and back; the parallel wire component includes a wire barrel installed in the primary wiring cavity and rotatably connected to the support shaft, the wire barrel is connected to a T-shaped parallel barrel, and a relative wire opening is arranged at the intersection of the parallel barrel; the independent wire component includes a wire hose arranged in the secondary wiring cavity, and a buckle opposite to the wire hose is arranged inside the secondary wiring cavity; the isolation component includes an isolation plate arranged in the secondary wiring cavity, and the isolation plate surrounds the wire opening circumferentially. The direction of the parallel barrel is adjusted as needed, and each parallel barrel rotates independently to realize the threading of topological structures such as star, bus, ring and tree.

[0010] In the above-mentioned ARM-based centralized database management center, the wire rack includes a main frame, the bottom of the main frame is closed by a wire mesh, and a wire outlet opposite to the cabinet is left between the wire meshes. Vertical wire baffles and connecting rods are arranged on both sides of the main frame, and the top of the connecting rod is connected to the upper end of the computer room; a number of plug-in slots are respectively opened on the opposite side of the wire baffles, and a number of branch boards are slidably plugged between the plug-in slots. The two sides of the branch boards are connected by hinges and are slidably connected to the plug-in slots. The branch boards are tilted or horizontally plugged and fixed relative to the wire baffles; the branch boards are long telescopic structures and are hinged to the plug-in boards at both ends. The wire rack realizes the external wiring of the computer room, and the internal multi-level structure further improves the regularity of the wiring.

[0011] In the above-mentioned ARM-based database centralized management center, the cabinet includes a number of main cavities arranged equidistantly in the upper and lower parts, and a sub-cavity is respectively arranged between the main cavities. A number of T-shaped threading barrels are rotatably installed in the sub-cavities, and the threading barrels are connected to the main cavities through adaptive closing components. A switching mechanism connected to the threading barrels is arranged between the sub-cavities of adjacent cabinets. The main cavity of the cabinet stores the chassis, and the sub-cavities between them meet the interconnection requirements between the upper and lower adjacent chassis.

[0012] In the above-mentioned ARM-based database centralized management center, the threading barrel includes a T-shaped threading plate arranged opposite to each other, the long sides of the threading plate are connected by an integrally formed vertical plate and the short sides are connected by a hinged vertical bar, and the ends of the threading plates are connected to each other. The threading barrel is an open structure, which is convenient for maintenance personnel to observe the line status.

[0013] In the above-mentioned ARM-based centralized database management center, the adaptive closed component includes a closed cylinder arranged above and below the center of the threading barrel and connected to the inside of the threading barrel, the closed cylinder is rotatably connected to the auxiliary cavity and connected to the main cavity, a closed plate opposite to the closed cylinder is fixed inside the main cavity, a plurality of threading grooves are opened on the closed plate, and a plurality of threading seats are installed on the side opposite to the closed cylinder; the switching mechanism includes a switching frame installed between cabinets, a plurality of T-shaped switching barrels are installed in the switching frame, a switching interface opposite to the port of the threading barrel is provided at the rotational connection between the switching barrel and the switching frame, a switching groove is opened on the side opposite to the cabinet, a plurality of switching seats are provided between the switching frame and the switching barrel, and the switching seats are provided between adjacent switching barrels. The adaptive closed component realizes the rotational installation of the threading barrel, and the switching mechanism realizes the wiring requirements of the chassis inside the adjacent cabinets.

[0014] In the above-mentioned ARM-based database centralized management center, a wiring bridge is arranged inside the computer room, the wiring bridge is arranged between the upper ends of the switching frame, the wiring bridge includes an inclined plate connected to the switching frame, the inclined plate is connected to a straight plate, the straight plates are respectively slidably connected to extension plates, the extension plates are rotatably connected to each other and an extension rod connected to the upper end of the computer room is fixed at the connection, and a tripod is arranged between the inclined plate and the straight plate. When the cabinet is in an isolated state, the switching mechanism maintains the wiring state and leaves a passage for the cabinet.

[0015] In the above-mentioned ARM-based database centralized management center, a cabinet is installed inside a computer room, a grid-shaped and arc-shaped sliding groove is opened at the lower end of the computer room, a roller connected to the sliding groove in a rolling manner is installed at the lower end of the cabinet, a pair of rotating seat bodies connected in rotation are arranged between the cabinet and the roller, and an incoming line assembly is arranged between the lower end of the cabinet and the floor of the computer room; the incoming line assembly includes an incoming line groove on the floor of the computer room, an incoming line board is installed at the upper end of the floor of the computer room through an expansion frame, the sliding groove is arranged at the upper end of the incoming line board, and the incoming line board has an incoming line opening opposite to the cabinet; the expansion frame includes an I-beam arranged between the floor of the computer room and the incoming line board, and a number of incoming line strips arranged in an upper and lower stack are arranged between the I-beams, the incoming line strips are fitted with the bottom of the incoming line groove and the lower end of the incoming line board, and there are corresponding line clamping openings between the incoming line strips; the ARM management module is connected to the video monitoring module through a communication bus, the ARM management module is connected to the alarm module, the sensing module includes a temperature sensor and a humidity sensor, and the ARM management module is connected to the data management module and the human-computer interaction module. The cabinet can be adjusted relative to the computer room, and wiring space is left at the bottom of the computer room, so as to make full use of the internal space of the computer room and meet the complex wiring requirements of large-scale databases.

[0016] Compared with the existing technology, the advantages of the present invention are: the ARM management module monitors the internal wiring status of the computer room in real time through the line detection module, which is suitable for the requirements of complex topology wiring structure; the parallel wire components and independent wire components inside the wire mechanism do not interfere with each other, and the wiring method can be flexibly adjusted; adjacent cabinets can be interconnected through a switching mechanism or a switching mechanism, further improving the wiring flexibility. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is the arrangement principle diagram of the present invention;

[0018] Figure 2 is a schematic structural diagram of a cabinet of the present invention;

[0019] Figure 3 is a structural schematic diagram of the cabinet of the present invention from another perspective;

[0020] Figure 4 It is a partial schematic diagram of the machine room of the present invention;

[0021] Figure 5It is a structural schematic diagram of the wiring gallery bridge of the present invention;

[0022] Figure 6 is a schematic structural diagram of a lead frame of the present invention;

[0023] Figure 7 It is a control principle diagram of the ARM management module of the present invention;

[0024] Figure 8 is a structural cross-sectional view of the guide wire mechanism of the present invention;

[0025] Fig. 9 is a structural cross-sectional view of the cabinet of the present invention;

[0026] Fig.10 It is a structural schematic diagram of a structural cross-sectional view of the present invention;

[0027] Fig.11 is a schematic structural diagram of Embodiment 1 of the present invention;

[0028] Fig.12 is a schematic structural diagram of Embodiment 2 of the present invention;

[0029] Fig.13 is a schematic structural diagram of Embodiment 3 of the present invention;

[0030] Fig.14 is a schematic structural diagram of a fourth embodiment of the present invention;

[0031] Fig.15 is a structural schematic diagram of Embodiment 5 of the present invention;

[0032] In the figure, the machine room 1, the cabinet 2, the main cavity 21, the auxiliary cavity 22, the threading barrel 23, the threading board 24, the vertical plate 25, the vertical bar 26, the ARM management module 3, the communication bus 31, the sensing module 32, the line detection module 33, the video monitoring module 34, the alarm module 35, the temperature sensor 36, the humidity sensor 37, the human-computer interaction module 39, the wire mechanism 4, the wire board 41, the partition frame 42, the primary wiring cavity 43, the secondary wiring cavity 44, the support shaft 45, the support frame 46, the cover plate 47, the wire barrel 48, the parallel barrel 49, the wire port 491, the wire hose 492, the buckle 493, the isolation plate 494, the wire frame 5, and the main frame 51, wire mesh plate 52, wire outlet 53, wire baffle 54, connecting rod 55, plug-in slot 56, branching plate 57, plug-in plate 58, adaptive closing component 6, closing cylinder 61, closing plate 62, threading slot 63, threading seat body 64, switching mechanism 7, switching frame 71, switching cylinder 72, switching interface 73, switching slot 74, switching seat body 75, wiring gallery 8, inclined plate 81, straight plate 82, extension plate 83, extension rod 84, tripod 85, sliding slot 9, roller 91, rotating seat body 92, incoming line assembly 93, incoming line slot 94, expansion frame 95, incoming line plate 96, incoming line port 97, I-beam 98, incoming line 99, clamping port 991. DETAILED DESCRIPTION

[0033] The present invention is further described in detail below with reference to the accompanying drawings and specific embodiments.

[0034] like Figure 1 as well as Figure 7 As shown, a database centralized management center based on ARM includes a closed computer room 1, in which cabinets 2 arranged in a matrix are arranged inside the computer room 1, and the cabinets 2 are adjacent to each other or there are aisles between them. A dehumidification and temperature control structure opposite to the cabinet 2 is arranged inside the computer room 1. Each cabinet 2 is respectively equipped with an ARM management module 3 to monitor and manage the wiring status of the chassis inside the cabinet 2. The ARM management module 3 is connected to the sensing module 32 through a communication bus 31, and cooperates with the dehumidification and temperature control structure to realize feedback adjustment to maintain the constant temperature and humidity inside the computer room 1. The sensing module 32 has a built-in line detection module 33 to monitor the wiring status of the chassis interface. A wire mechanism 4 is installed on the back of the cabinet 2, and the external line is connected to each chassis after being guided by the wire mechanism 4. The line detection module 33 is opposite to the wire mechanism 4. When the external guide is plugged into the chassis, the line detection module 33 at the interface is sensed accordingly, and the maintenance personnel can monitor the wire connection status through the ARM management module 3.

[0035] like Figure 2As shown, the wire mechanism 4 is arranged on the back of the cabinet 2, opposite to the port on the back of the chassis. The wire mechanism 4 includes a wire board 41 installed on the back of the cabinet 2 and having a hollow interior. The wire board 41 is provided with parallel wire assemblies and independent wire assemblies through a three-dimensional support assembly, and an isolation assembly is provided between the parallel wire assembly and the independent wire assembly. A wire frame 5 is provided above the cabinet 2. The external line is suspended above the cabinet 2 through the wire frame 5, and some wires are introduced into the parallel wire assembly to realize the cross-interconnection of each chassis, and the other part of the wires are directly connected to the chassis through the independent wire assembly, and the isolation assembly keeps them from interfering with each other.

[0036] In depth, the wire board 41 includes a hollow interior and is divided into a primary wiring cavity 43 and a secondary wiring cavity 44 by a vertically arranged partition frame plate 42. The primary wiring cavity 43 cooperates with the parallel wire assembly to distribute the lines introduced by the wire frame 5 to the remaining wire boards 41 and connect them to the cabinet 2. The three-dimensional support assembly is arranged between the primary wiring cavity 43 and the secondary wiring cavity 44 to maintain the internal structure of the wire board 41 and provide a mounting frame for the parallel wire assembly.

[0037] from Figure 2 as well as Figure 8 The three-dimensional support assembly includes a support shaft 45 passing through the primary wiring cavity 43 and the secondary wiring cavity 44. A support frame 46 fixedly connected to the support shaft 45 is provided in the wire board 41. The wire board 41 is closed by a detachable cover plate 47 at the front and back. Multiple support shafts 45 are provided inside the support shaft 45, and the support shafts 45 are arranged in the horizontal direction or in the vertical direction. The parallel wire assembly can be installed by opening the cover plate 47.

[0038] like Figure 8 As shown, the parallel wire assembly includes a wire barrel 48 installed in the primary wiring cavity 43 and rotatably connected to the support shaft 45. The wire barrel 48 is connected to a T-shaped parallel barrel 49, and a relative wire opening 491 is provided at the intersection of the parallel barrel 49. The wire is guided from the primary wiring cavity 43 to the secondary wiring cavity 44 through the wire opening 491. The independent wire assembly includes a wire hose 492 arranged in the secondary wiring cavity 44, and a buckle 493 opposite to the wire hose 492 is arranged inside the secondary wiring cavity 44. The buckle 493 is used to clamp and fix the wire hose 492, and the winding state of the wire can be flexibly adjusted; the isolation assembly includes an isolation plate 494 arranged in the secondary wiring cavity 44, and the isolation plate 494 is circumferentially surrounded by the wire opening 491. The wire hose 492 is arranged outside the isolation plate 494, and the wire drawn out of the primary wiring cavity 43 is independent of the secondary wiring cavity 44.

[0039] Furthermore, if Figure 1 as well as Figure 6As shown, after the wires are inserted into the machine room 1, the wire frame 5 sets the wires above the cabinet 2. The wire frame 5 includes a main frame 51, the bottom of which is closed by a wire mesh 52. The wire mesh 52 does not affect the maintenance personnel's judgment of the wire insertion status. The width and length of the wire mesh 52 are adjusted according to the specifications of the main frame 51. An outlet 53 opposite to the cabinet 2 is left between the wire mesh 52. The position of the outlet 53 can be adjusted by adjusting the position of the wire mesh 52 relative to the main frame 51, ensuring that the outlet 53 is opposite to the opening at the upper end of the wire plate 41. Vertical wire baffles 54 and connecting rods 55 are arranged on both sides of the main frame 51. The top of the connecting rod 55 is connected to the upper end of the machine room 1 and the installation stability is improved by expansion bolts; a plurality of plug-in slots 56 are respectively opened on the opposite side of the wire baffle 54, and a plurality of branching plates 57 are slidably plugged between the plug-in slots 56. The branching plates 57 classify the introduced wires in layers, thereby intuitively realizing the wire layout. The two sides of the wiring board 57 are connected to the plug-in boards 58 which are slidably connected to the plug-in slots 56 by hinge rotation. The wiring board 57 is fixed to the wire baffle 54 in an inclined or horizontal manner. The wiring board 57 is a long telescopic structure and its two ends are hinged to the plug-in boards 58. When the wiring board 57 is arranged horizontally, the plug-in boards 58 on both sides are plugged into the plug-in slots 56 at the same level; when the wiring board 57 is arranged obliquely, the plug-in boards 58 are plugged into the plug-in slots 56 at different heights. The space between adjacent wiring boards 57 can be adjusted as needed to meet the requirements for fixing different numbers of wires.

[0040] In addition, the overall appearance of cabinet 2 Figure 2 as well as Figure 3 The frame structure is convenient for the internal chassis heat dissipation. The cabinet 2 includes a number of main cavities 21 arranged equidistantly in the upper and lower parts, and sub-cavities 22 are respectively arranged between the main cavities 21. The upper and lower ends of the main cavity 21 and the sub-cavity 22 are supported by cabinet plates respectively. A number of T-shaped threading barrels 23 are rotatably installed in the sub-cavity 22. The threading barrel 23 rotates in situ so that its ports are opposite, and the wire is bent and reversed in the threading barrel 23 and introduced into another threading barrel 23. The threading barrel 23 is connected to the main cavity 21 through an adaptive closing component 6, and a switching mechanism 7 connected to the threading barrel 23 is arranged between the sub-cavities 22 of adjacent cabinets 2. The upper and lower adjacent chassis are guided to thread through the adaptive closing component 6, and the left and right adjacent chassis are guided to thread through the switching mechanism 7.

[0041] Meanwhile, the threading barrel 23 includes a T-shaped threading plate 24 arranged opposite to each other up and down, the long sides of the threading plate 24 are connected by an integrally formed vertical plate 25 and the short sides are connected by a hinged vertical bar 26, and the ends of the threading plate 24 are connected to each other. The vertical bar 26 can be opened and closed relative to the threading plate 24, so that the bent wire can be directly inserted into the threading barrel 23.

[0042] It can be seen that the adaptive closed component 6 includes a closed cylinder 61 arranged above and below the center of the threading barrel 23 and connected to the inside of the threading barrel 23. The closed cylinder 61 is rotatably connected to the secondary cavity 22 and is connected to the main cavity 21. When the threading barrel 23 rotates relative to the central axis of the closed cylinder 61, the passage inside the secondary cavity 22 changes accordingly, and the threading barrel 23 is installed on the same horizontal plane and arranged in a matrix. A closed plate 62 opposite to the closed cylinder 61 is fixed inside the main cavity 21, and a plurality of threading grooves 63 are opened on the closed plate 62. A plurality of threading seats 64 are installed on the side of the closed plate 62 opposite to the closed cylinder 61. When the wire is led out from the threading barrel 23 in the secondary cavity 22, it is first introduced between the threading barrel 23 and the cabinet board, and the wire is distributed to the ports of each chassis by the threading groove 63, and the threading seat 64 fixes the wire by a cable tie.

[0043] The transfer mechanism 7 includes a transfer frame 71 installed between the cabinets 2, and a plurality of T-shaped transfer cylinders 72 are installed in the transfer frame 71. The transfer cylinders 72 are arranged in a vertical direction and are opposite to the auxiliary cavity 22. A transfer port 73 opposite to the end of the threading cylinder 23 is provided at the rotation connection between the transfer cylinder 72 and the transfer frame 71. The wire in the threading cylinder 23 is introduced into the transfer cylinder 72 through the transfer port 73 for further guidance, or is passed through another transfer port 73 and directly introduced into the auxiliary cavity 22 in another cabinet 2. A transfer groove 74 for the wire to be inserted from the outside is provided on the side opposite to the cabinet 2 of the transfer cylinder 72. A plurality of transfer seats 75 are provided between the transfer frame 71 and the transfer cylinder 72. The transfer seats 75 are provided between adjacent transfer cylinders 72. When the wire is located between the transfer seats 75, the transfer seats 75 are limited and fixed.

[0044] Obviously, an arched wiring bridge 8 is provided inside the machine room 1. When the cabinets 2 are in a separated state and a passage is required between them, the wiring bridge 8 is provided between the upper ends of the transfer frame 71 to play a transfer role. The wiring bridge 8 includes an inclined plate 81 connected to the transfer frame 71, the inclined plate 81 is connected to a straight plate 82, and the straight plates 82 are respectively slidably connected to extension plates 83, the extension plates 83 are rotatably connected to each other and an extension rod 84 connected to the upper end of the machine room 1 is fixed at the connection. When the cabinets 2 are not in the same horizontal orientation, the extension plate 83 can be relatively rotated to keep the wiring bridge 8 stable in structure. A tripod 85 is provided between the mutually hinged inclined plate 81 and the straight plate 82 to fix their relative angles, so as to meet the transfer requirements of cabinets 2 at different distances.

[0045] Preferably, Figure 1The middle cabinet 2 is installed inside the machine room 1. The lower end of the machine room 1 is provided with a grid-shaped and arc-shaped sliding groove 9. The lower end of the cabinet 2 is provided with a roller 91 that is rollingly connected to the sliding groove 9. A pair of rotating seats 92 that are rotatably connected are provided between the cabinet 2 and the roller 91. The cabinet 2 translates and rotates relative to the machine room 1 through the roller 91 and the rotating seat 92. A line-in assembly 93 is provided between the lower end of the cabinet 2 and the floor of the machine room 1 to guide the wires into each machine room 1. The line-in assembly 93 includes a line-in slot 94 on the floor of the machine room 1. A line-in board 96 is provided on the upper end of the floor of the machine room 1 through an expansion frame 95. Corresponding threading space is left between the line-in slot 94 and the line-in board 96 and the floor of the machine room 1. The sliding groove 9 is provided at the upper end of the line-in board 96. The line-in board 96 is provided with a line-in port 97 that is opposite to the cabinet 2. By adjusting the orientation of the line-in board 96, the position of the line-in port 97 is adjusted accordingly and maintained opposite to the lower end of the wire mechanism 4.

[0046] like Figure 4 As shown, the expansion frame 95 includes an I-beam 98 disposed between the floor of the machine room 1 and the incoming line board 96. The I-beam 98 lifts the incoming line board 96 relative to the ground, and the hollow structure below facilitates ventilation and dehumidification to keep the line safe. A number of incoming lines 99 arranged in an upper and lower stack are arranged between the I-beams 98. The incoming lines 99 fit the bottom of the incoming line slot 94 and the lower end of the incoming line board 96. There are corresponding clamping openings 991 between the incoming lines 99. The wires are clamped and fixed by the clamping openings 991. Multiple pairs of incoming lines 99 can clamp and fix multiple groups of wires; the ARM management module 3 is connected to the video monitoring module 34 through the communication bus 31. The ARM management module 3 is connected to the alarm module 35. The sensing module 32 includes a temperature sensor 36 and a humidity sensor 37. The ARM management module 3 is connected to the data management module 38 and the human-computer interaction module 39. The video monitoring module 34 includes but is not limited to a camera installed inside the computer room 1 and a light sensor arranged in the computer room 1. The temperature sensor 36 and the humidity sensor 37 sense the internal environment of the computer room 1. The maintenance personnel adjust the ARM management module 3 through the human-computer interaction module 39, and the ARM management module 3 records the chassis wiring and the internal wiring status of the computer room 1.

[0047] Embodiment 1

[0048] like Fig.11 As shown, the parallel cylinders 49 of the conductor mechanism 4 in this embodiment are rotated and switched into a main circuit and several branches, wherein a group of parallel cylinders 49 arranged along the same vertical direction have a main circuit in series, and the remaining parallel cylinders 49 retain several branches connected in parallel with the main circuit, which is suitable for the wiring of the database bus structure and has a higher channel utilization rate.

[0049] Embodiment 2

[0050] like Fig.12As shown, the parallel tube 49 of the conductor mechanism 4 in this embodiment switches to retain a main line extending in the vertical direction and a plurality of branch lines extending in the horizontal direction. Interconnected branch lines are also retained between adjacent branches. Multiple cabinets 2 are combined through a switching mechanism 7 to construct multiple databases into a ring structure. When a database fails, it is convenient to quickly determine the fault point. At the same time, due to the retention of the branch lines, the failure of one chassis will not affect the normal connection of the remaining chassis.

[0051] Embodiment 3

[0052] like Fig.13 As shown, the parallel tubes 49 in this embodiment rotate and switch to retain a main circuit extending in the horizontal direction, and the remaining parallel tubes 49 retain branches extending in the vertical direction and connected to the main circuit, as well as branches extending in the horizontal direction. The wires led from the branches to the main circuit are further distributed through the switch, thereby meeting the wiring requirements of the tree structure.

[0053] Embodiment 4

[0054] like Fig.14 As shown, the structure, principle and implementation steps of this embodiment are similar to those of Embodiment 1, Embodiment 2 and Embodiment 3. The difference is that the threading drum 23 in this embodiment rotates to retain a main path extending in the horizontal direction and a branch path connected one-to-one with the parallel drum 49 at the same installation height. The parallel drum 49 and the threading drum 23 are combined to form a network structure with multiple node paths, which is convenient for database expansion.

[0055] Embodiment 5

[0056] like Fig.15 As shown, the structure, principle and implementation steps of this embodiment are similar to those of the fourth embodiment. The difference is that the adapter tube 72 in this embodiment rotates to retain a main circuit extending in the vertical direction, and each adapter tube 72 also has a branch circuit directly connected to the wire inside the wire frame 5.

[0057] To sum up, the principle of this embodiment is that the wire mechanism 4 distributes the internal wires of the computer room 1 to each cabinet 2, and the ARM management module 3 records and manages the wire wiring. The wire mechanism 4 can adjust its own structure and switch the internal path to meet the wiring requirements of complex topology structures.

[0058] The specific embodiments described herein are merely examples of the spirit of the present invention. Those skilled in the art may make various modifications or additions to the specific embodiments described or replace them in similar ways, but they will not deviate from the spirit of the present invention or exceed the scope defined by the appended claims.

[0059] Although this article uses more computer room 1, cabinet 2, main cavity 21, sub-cavity 22, threading barrel 23, threading board 24, vertical board 25, vertical bar 26, ARM management module 3, communication bus 31, sensing module 32, line detection module 33, video monitoring module 34, alarm module 35, temperature sensor 36, humidity sensor 37, human-computer interaction module 39, wire mechanism 4, wire board 41, partition frame plate 42, primary wiring cavity 43, secondary wiring cavity 44, support shaft 45, support frame 46, cover plate 47, wire barrel 48, parallel barrel 49, wire port 491, wire hose 492, buckle 493, isolation plate 494, wire frame 5, main frame 51, wire network The terms board 52, outlet 53, wire baffle 54, connecting rod 55, plug slot 56, branching board 57, plug board 58, adaptive closed component 6, closed cylinder 61, closed plate 62, threading slot 63, threading seat body 64, transfer mechanism 7, transfer frame 71, transfer cylinder 72, transfer interface 73, transfer slot 74, transfer seat body 75, wiring gallery 8, inclined plate 81, straight plate 82, extension plate 83, extension rod 84, tripod 85, sliding slot 9, roller 91, rotating seat body 92, incoming line component 93, incoming line slot 94, expansion frame 95, incoming line board 96, incoming line port 97, I-beam 98, incoming line 99, clamping line port 991, etc., but the possibility of using other terms is not excluded. The use of these terms is only to more conveniently describe and explain the essence of the present invention; interpreting them as any additional restrictions is contrary to the spirit of the present invention.

Claims

1. A database centralized management center based on ARM, comprising a computer room (1) and cabinets (2) arranged in a matrix in the computer room (1), characterized in that: Each cabinet (2) is respectively equipped with an ARM management module (3), the ARM management module (3) being connected to a sensing module (32) via a communication bus (31), the sensing module (32) having a built-in line detection module (33), a wire mechanism (4) being installed at the back of the cabinet (2), the line detection module (33) being opposite to the wire mechanism (4); the wire mechanism (4) comprising a wire board (41) installed at the back of the cabinet (2), a parallel wire assembly and an independent wire assembly being installed inside the wire board (41) via a three-dimensional support assembly, an isolation assembly being arranged between the parallel wire assembly and the independent wire assembly, and a wire frame (5) being arranged at the upper end of the cabinet (2); The wire board (41) comprises a hollow interior and is divided into a primary wiring cavity (43) and a secondary wiring cavity (44) by a vertically arranged partition frame plate (42); the three-dimensional support component is arranged between the primary wiring cavity (43) and the secondary wiring cavity (44); the three-dimensional support component comprises a support shaft (45) passing through the primary wiring cavity (43) and the secondary wiring cavity (44); a support frame (46) fixedly connected to the support shaft (45) is arranged in the wire board (41); the wire board (41) is closed at the front and rear by a detachable cover plate (47); the parallel wire assembly comprises a wire barrel (46) installed in the primary wiring cavity (43) and rotatably connected to the support shaft (45); 8), the wire tube (48) is connected to a T-shaped parallel tube (49), and the parallel tube (49) is provided with a relative wire opening (491) at the intersection; the independent wire assembly includes a wire hose (492) arranged in the secondary wiring cavity (44), and the secondary wiring cavity (44) is provided with a buckle (493) opposite to the wire hose (492); the isolation assembly includes an isolation plate (494) arranged in the secondary wiring cavity (44), and the isolation plate (494) surrounds the wire opening (491) in a circumferential direction; the wire frame (5) includes a main frame (51), and the bottom of the main frame (51) is closed by a wire mesh plate (52), and the wire mesh plate ( A wire outlet (53) is left between the main frame (51) and the cabinet (2), and a vertical wire baffle (54) and a connecting rod (55) are arranged on both sides of the main frame (51), and the top of the connecting rod (55) is connected to the upper end of the machine room (1); a plurality of plug-in slots (56) are respectively opened on the opposite side of the wire baffle (54), and a plurality of branch boards (57) are slidably plugged between the plug-in slots (56), and plug-in plates (58) slidably connected to the plug-in slots (56) are rotatably connected on both sides of the branch board (57) through hinges, and the branch board (57) is tilted or horizontally plugged and fixed relative to the wire baffle (54); the branch board (57) is a long telescopic structure and its two ends are hinged to the plug-in plate (58).

2. The ARM-based centralized database management center according to claim 1, characterized in that: The cabinet (2) comprises a plurality of main cavities (21) arranged equidistantly in the upper and lower parts, and auxiliary cavities (22) are respectively arranged between the main cavities (21). A plurality of T-shaped threading barrels (23) are rotatably mounted in the auxiliary cavities (22). The threading barrels (23) are connected to the main cavities (21) via adaptive sealing components (6), and a switching mechanism (7) connected to the threading barrels (23) is arranged between the auxiliary cavities (22) of adjacent cabinets (2).

3. The ARM-based centralized database management center according to claim 2, characterized in that: The threading barrel (23) comprises a threading plate (24) arranged opposite to each other in a T-shape, the long sides of the threading plate (24) being connected via an integrally formed vertical plate (25) and the short sides being connected via a hinged vertical bar (26), and the ends of the threading plate (24) being interconnected.

4. The ARM-based centralized database management center according to claim 3, characterized in that: The adaptive sealing component (6) comprises a sealing cylinder (61) arranged above and below the center of the threading cylinder (23) and connected to the inside of the threading cylinder (23); the sealing cylinder (61) is rotatably connected to the auxiliary cavity (22) and connected to the main cavity (21); a sealing plate (62) opposite to the sealing cylinder (61) is fixed inside the main cavity (21); a plurality of threading grooves (63) are formed on the sealing plate (62); a plurality of threading seats (64) are installed on the side of the sealing plate (62) opposite to the sealing cylinder (61); the switching mechanism (7) ) comprises an adapter frame (71) installed between cabinets (2), a plurality of T-shaped adapter tubes (72) being installed in the adapter frame (71), an adapter interface (73) opposite to the end of the threading tube (23) being provided at the rotational connection between the adapter tube (72) and the adapter frame (71), an adapter groove (74) being provided on the side opposite to the cabinet (2), a plurality of adapter seats (75) being provided between the adapter frame (71) and the adapter tube (72), and the adapter seats (75) being provided between adjacent adapter tubes (72).

5. The ARM-based centralized database management center according to claim 4, characterized in that: A wiring bridge (8) is arranged inside the machine room (1), the wiring bridge (8) is arranged between the upper ends of the adapter frame (71), the wiring bridge (8) comprises an inclined plate (81) connected to the adapter frame (71), the inclined plate (81) is connected to a straight plate (82), the straight plates (82) are respectively slidably connected to extension plates (83), the extension plates (83) are rotatably connected to each other and an extension rod (84) connected to the upper end of the machine room (1) is fixed at the connection, and a tripod (85) is arranged between the inclined plate (81) and the straight plate (82).

6. The ARM-based centralized database management center according to claim 1, characterized in that: The cabinet (2) is installed inside the machine room (1); the lower end of the machine room (1) is provided with a grid-shaped and arc-shaped sliding groove (9); the lower end of the cabinet (2) is provided with a roller (91) which is rollingly connected to the sliding groove (9); a pair of rotating seats (92) which are rotatably connected are provided between the cabinet (2) and the roller (91); an incoming line assembly (93) is provided between the lower end of the cabinet (2) and the floor of the machine room (1); the incoming line assembly (93) comprises an incoming line groove (94) on the floor of the machine room (1); an incoming line board (96) is installed on the upper end of the floor of the machine room (1) through an expansion frame (95); the sliding groove (9) is provided at the upper end of the incoming line board (96); the incoming line board (96) is provided with an incoming line port (97) which is opposite to the cabinet (2); the expansion frame (95) is provided at the upper end of the incoming line board (96); the incoming line port (97) which is opposite to the cabinet (2) is provided at the upper end of the sliding groove (9); the expansion frame (95) is provided at the upper end of the incoming line board (96); the incoming line board (96) is provided with an incoming line port (97) which is opposite to the cabinet (2); the expansion frame (95) is provided at the upper end of the sliding groove (9) and ...). The display frame body (95) comprises an I-beam (98) arranged between the floor of the machine room (1) and the incoming line board (96); a plurality of incoming line bars (99) arranged in an up-and-down manner are arranged between the I-beams (98); the incoming line bars (99) are fitted with the bottom of the incoming line slot (94) and the lower end of the incoming line board (96); corresponding line clamping openings (991) are opened between the incoming line bars (99); the ARM management module (3) is connected to the video monitoring module (34) via a communication bus (31); the ARM management module (3) is connected to an alarm module (35); the sensing module (32) comprises a temperature sensor (36) and a humidity sensor (37); the ARM management module (3) is connected to a data management module (38) and a human-computer interaction module (39).

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