A big data processing device based on the Internet of Things

Abstract

The present invention relates to the technical field of big data processing devices, and particularly to a big data processing device based on the Internet of Things, including a data cabinet. A cabinet door is provided on the front of the data cabinet, and a placement cavity is formed by inward depression in the middle of the data cabinet. A number of big data processing components for processing big data are provided inside the placement cavity. A number of power supply lines for providing power are also provided on the big data processing components. A number of fixing devices for facilitating the installation of the big data processing components and the power supply lines are provided inside the data cabinet. A switching mechanism for adjusting the fixing device is also provided between the big data processing components and the fixing device; through the cooperation of structures such as a wire guiding mechanism, a wire clamping mechanism, a fixing plate, a guide rail, and a stop rod, the power connection heads of the power supply lines are protected in the present invention, facilitating the staff to quickly distinguish and locate different power supply lines, reducing the maintenance cost, and reducing the disassembly and assembly time of the staff.

Description

Technical Field

[0001] The present invention relates to the technical field of big data processing devices, and particularly to a big data processing device based on the Internet of Things. Background Art

[0002] The concept of big data is defined as: a data set whose scale is so large that it far exceeds the capabilities of traditional database software tools in terms of acquisition, storage, management, and analysis. Its main advantage is that big data can be captured, managed, processed, and organized into information that helps enterprises make more proactive business decisions within a reasonable time. At the same time, it has four major advantages: a huge data scale, fast data flow, diverse data types, and low value density. When processing big data, generally, a big data processing device based on the Internet of Things is required. And a big data processing device based on the Internet of Things is a device that is oriented to the entire process of big data storage, processing, and display, and is integrated with software and hardware. Generally, a big data processing device based on the Internet of Things refers to an integrated device that integrates servers, storage, networks, software, etc. through a standardized architecture, and simplifies the complexity of data center infrastructure deployment and operation and maintenance management.

[0003] In existing big data processing devices based on the Internet of Things, generally several big data processing components are provided. And the big data processing components include multiple servers, multiple memories, and multiple network switches. Therefore, when installing the big data processing components, multiple different power cords need to be installed to supply power to the servers, memories, and network switches inside. Thus, when installing the power cords between the servers, memories, and network switches, the power cords need to be plugged and unplugged from the servers, memories, and network switches multiple times. As a result, not only is it easy to mix up the power cords of the servers, memories, and network switches, but it is also easy to damage the connection heads of the unconnected power cords. Moreover, it also requires staff to classify various power cords for a long time, increasing the maintenance cost and reducing work efficiency. Therefore, we propose a big data processing device based on the Internet of Things. Summary of the Invention

[0004] In order to overcome the deficiencies of the prior art, the present invention provides a big data processing device based on the Internet of Things.

[0005] To solve the above technical problems, the present invention provides the following technical solutions:

[0006] A big data processing device based on the Internet of Things, comprising:

[0007] Data cabinet, a cabinet door is provided on the front of the data cabinet, and the middle part of the data cabinet is recessed inward to form a placement cavity. A number of big data processing components for processing big data are provided inside the placement cavity. A number of power supply lines for providing power are also provided on the big data processing components. A heat dissipation port for cooling the big data processing components is provided on the top of the data cabinet, and a number of heat conduction tubes for cooling it are also provided on both sides of the data cabinet;

[0008] A number of fixing devices for facilitating the installation of big data processing components and power supply lines are provided inside the data cabinet. A switching mechanism for adjusting the fixing device is also provided between the big data processing components and the fixing device;

[0009] The fixing device includes a fixing plate fixed inside the data cabinet. Two guide rails for facilitating the sliding of big data processing components are provided on the top of the fixing plate. A retaining rod for limiting the power supply line is fixed between the two guide rails. A number of wire passing holes for facilitating the movement of the power supply line are provided on the retaining rod. A number of wire guiding mechanisms for facilitating the insertion of the power supply line into the big data processing component are provided on the retaining rod. A wire clamping mechanism for clamping the power supply line is provided at one end of the wire guiding mechanism away from the big data processing component. The switching mechanism is provided below the fixing plate, and the lower part of the switching mechanism is in contact with the wire clamping mechanism. The power supply line is fixed by the wire clamping mechanism so that the power supply line is fixed inside the wire guiding mechanism to prevent the power supply line from slipping out of the wire guiding mechanism during movement. The power supply line is driven to move by the wire guiding mechanism so that the power supply line passes through the retaining rod and is inserted into the big data processing component. The power supply lines installed on the big data processing component are uniformly opened and closed by the switching mechanism;

[0010] Clamping blocks are provided on the big data processing component. Extension parts extend from one end of the two clamping blocks away from the big data processing component towards the middle. Protruding parts adapted to the clamping blocks are provided on one side of the two guide rails facing each other. Grooves adapted to the extension parts are provided on the protruding parts. The protruding parts are T-shaped. The clamping blocks are slidably installed on the protruding parts. Through the cooperation of the clamping blocks and the protruding parts, it is convenient for the big data processing component to slide quickly on the guide rails.

[0011] As a preferred technical solution of the present invention, the wire mechanism includes a main wire harness sleeve inserted on the gear lever and a support rod fixed on the gear lever. A drive disk is provided at one end of the support rod away from the gear lever. The end of the main wire harness sleeve away from the gear lever is connected to the wire clamping mechanism. A positioning plate is also fixed on the side of the gear lever. A wire bundling ring is fixed at one end of the positioning plate away from the gear lever. A secondary drive block is fixed on the top of the wire bundling ring. A main spring is provided between the secondary drive block and the wire clamping mechanism. The bottom of the drive disk is rotatably mounted on the support rod, and the side of the drive disk is in contact with the wire clamping mechanism. By pushing the drive disk to rotate around the support rod, after the drive disk contacts the wire clamping mechanism, the wire clamping mechanism is pushed to move, so that the wire clamping mechanism drives the power line and the main wire harness sleeve to move, and the power line is separated from the big data processing component.

[0012] As a preferred technical solution of the present invention, the wire clamping mechanism includes a secondary wire harness sleeve fixed on the main wire harness sleeve. Two through slots are provided on the secondary wire harness sleeve. Two elastic sheets for clamping the power line are fixed inside the two through slots. A number of pressure blocks are provided on one side of the two elastic sheets facing each other. A main drive block is fixed on the top of the secondary wire harness sleeve. The free end of the main spring is fixed to the side of the main drive block. The side of the main drive block away from the main spring is in contact with the drive disk. After the power line is inserted into the secondary wire harness sleeve, the power line pushes the elastic sheet to deform, so that the elastic sheet releases elastic force to press the power line, and the pressure blocks on the elastic sheet clamp and fix the power line, so that the power line is inserted into the main wire harness sleeve and the secondary wire harness sleeve.

[0013] As a preferred technical solution of the present invention, one end of the drive disk is provided with an inclined surface adapted to the main drive block, and a positioning groove is also provided on the outer wall of the drive disk. A handle for driving the drive disk to rotate is also provided at one end of the drive disk away from the support rod. By pushing the handle to drive the drive disk to rotate, the drive disk rotates around the support rod, so that the inclined surface of the drive disk contacts the side of the main drive block away from the main spring, and the drive disk drives the secondary wire harness sleeve to move through the main spring, so that the secondary wire harness sleeve drives the power line to be separated from the big data processing component. The cooperation between the main drive block and the inclined surface limits the drive disk to prevent the elastic force released by the main spring from pushing the drive disk to move. It is also possible to push the handle to drive the drive disk to rotate, so that the drive disk rotates around the support rod, so that the positioning groove of the drive disk contacts the gear lever, and the gear lever cooperates with the positioning groove of the drive disk to limit the drive disk. The main spring releases elastic force to drive the secondary drive block to move, so that the secondary drive block drives the power line to move through the secondary wire harness sleeve, and the power line is inserted into the big data processing component.

[0014] As a preferred technical solution of the present invention, a limiting rod is fixed to the outer wall of the main wiring harness sleeve, and two limiting blocks are fixed to the outer wall of the wiring ring. The end of the limiting rod away from the main wiring harness sleeve passes through the limiting block and extends to the other side of the limiting block. The limiting block is used to limit the limiting rod, so that the limiting rod limits the main wiring harness sleeve to prevent the main wiring harness sleeve from rotating when moving, thereby causing the power cord to rotate, resulting in poor contact between the power cord and the big data processing component, affecting the normal use of the big data processing component.

[0015] As a preferred technical solution of the present invention, the switch mechanism includes a lock frame arranged below the fixed plate, the bottom of the lock frame is recessed inward to form a drive groove, the lock frame is slidably installed at the bottom of the guide rail, and the handle is arranged inside the drive groove. By pushing the lock frame to move, the lock frame drives several handles to move, and the several handles drive several drive disks to rotate, so that the lock frame moves several power cords at the same time, and several power cords are connected and separated from the big data processing component at the same time.

[0016] As a preferred technical solution of the present invention, a secondary spring is fixed on the top of the lock frame, a slider is fixed on the top of the secondary spring, a wedge block is fixed on the top of the slider, a wedge-shaped groove matched with the wedge block is provided at the bottom of the guide rail, and a lifting groove matched with the lever is provided in the middle of the slider, and the lock frame is pulled upward by the elastic force of the secondary spring to move the lock frame above the handle, thereby facilitating people to push several drive disks separately.

[0017] As a preferred technical solution of the present invention, a flip plate and a plurality of ventilation plates are provided at one end of the data cabinet away from the cabinet door, a plurality of ventilation holes are provided on the flip plate, the flip plate is rotatably installed on the upper half of the data cabinet, and the plurality of ventilation plates are rotatably installed on the lower half of the end of the data cabinet away from the cabinet door. By pulling the flip plate to rotate, the flip plate is separated from the data cabinet, so that people can turn the drive disk from the back of the data cabinet conveniently and quickly. The air intake of the data cabinet is adjusted by a plurality of rotatable ventilation plates, so that the interior of the data cabinet can be quickly cooled down.

[0018] Compared with the prior art, the present invention can achieve the following beneficial effects:

[0019] Through the coordination of structures such as the wire mechanism, the wire clamping mechanism, the fixing plate, the guide rail and the shift lever, the big data processing components and the power cord can be quickly disassembled and assembled, and the power connector of the power cord can also be protected by the main wire harness sleeve, the auxiliary wire harness sleeve and the shift lever. Thus, several power cords can be distinguished by the main wire harness sleeve, the auxiliary wire harness sleeve and the shift lever, so that the staff can quickly distinguish and locate different power cords, which not only reduces the maintenance cost of the big data processing components and the power cord, but also reduces the time for disassembly and assembly of the big data processing components and the power cord, thereby improving work efficiency.

[0020] The power cord is inserted into the inside of the secondary wire harness sleeve, causing the power cord to deform the elastic piece, enabling the elastic piece to release elastic force to press on the power cord, and causing the pressure block on the elastic piece to clamp and fix the power cord, so that the power cord is inserted into the inside of the main wire harness sleeve and the secondary wire harness sleeve, thereby facilitating people to quickly classify and fix a plurality of power cords, reducing the preparatory work before installation, and further shortening the installation time.

[0021] The main wire harness sleeve is inserted into the inside of the gear lever, enabling the cooperation between the gear lever and the limit lever to limit the gear lever, and causing the gear lever to limit the limit lever, preventing the elastic force released by the main spring from being too large and driving the main wire harness sleeve to collide with the big data processing component, damaging the main wire harness sleeve or the big data processing component, and improving the safety of the device.

[0022] By pushing the lock frame to move, the lock frame drives a plurality of the handles to move, the plurality of the handles drive a plurality of drive disks to rotate, the lock frame moves a plurality of power cords simultaneously, and the plurality of power cords are simultaneously inserted into and separated from the big data processing component, facilitating the staff to quickly disassemble and assemble the big data processing component and improving the convenience of the device. BRIEF DESCRIPTION OF THE DRAWINGS

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

[0024] Figure 2 is a schematic structural diagram of the heat conduction tube of the present invention;

[0025] Figure 3 is a schematic structural diagram of the fixing device of the present invention;

[0026] Figure 4 is a schematic structural diagram of the fixing plate of the present invention;

[0027] Figure 5 is a schematic structural diagram of the guide rail of the present invention;

[0028] Figure 6 is a schematic structural diagram of the gear lever of the present invention;

[0029] Figure 7 is a schematic structural diagram of the main wire harness sleeve of the present invention;

[0030] Figure 8 is a schematic structural diagram of the secondary wire harness sleeve of the present invention;

[0031] Figure 9 is a schematic structural diagram of the through groove of the present invention;

[0032] Figure 10 is of the present invention Figure 5 is a partial enlarged structural schematic diagram at A in;

[0033] Figure 11 Schematic structural diagram of the elastic sheet of the present invention;

[0034] Figure 12 Schematic structural diagram of the through groove of the present invention.

[0035] Wherein: 1, data cabinet; 2, cabinet door; 3, heat dissipation port; 4, heat conduction pipe; 5, big data processing component; 6, fixing device; 7, power cord; 601, fixing plate; 602, guide rail; 603, retaining rod; 604, lock frame; 605, main wire harness sleeve; 606, drive disk; 607, support rod; 608, limiting rod; 609, secondary wire harness sleeve; 610, wire harness ring; 611, limiting block; 612, main spring; 613, main transmission block; 614, secondary transmission block; 615, positioning plate; 616, lever; 617, through groove; 618, elastic sheet; 619, slider; 620, wedge block; 621, secondary spring; 101, turning plate; 102, ventilation plate. Specific embodiments

[0036] In order to make the technical means, creative features, achieved purposes and functions of the present invention easy to understand, the present invention will be further described below in conjunction with specific embodiments. However, the following embodiments are only the preferred embodiments of the present invention, not all of them. Based on the embodiments in the embodiments, other embodiments obtained by those skilled in the art without creative labor all fall within the protection scope of the present invention. The experimental methods in the following embodiments are all conventional methods unless otherwise specified, and the materials, reagents, etc. used in the following embodiments can all be obtained from commercial channels unless otherwise specified.

[0037] Embodiment: The present invention provides a big data processing device based on the Internet of Things as Figure 1 shown, including:

[0038] A data cabinet 1, a cabinet door 2 is arranged on the front of the data cabinet 1, and a placement cavity is formed by inward depression in the middle of the data cabinet 1. A plurality of big data processing components 5 for processing big data are arranged inside the placement cavity. A plurality of power cords 7 for providing power are also arranged on the big data processing components 5. A heat dissipation port 3 for cooling the big data processing components 5 is arranged on the top of the data cabinet 1, and a plurality of heat conduction pipes 4 for cooling it are also arranged on both sides of the data cabinet 1. The big data processing component 5 is composed of a server of model R4900G3, a data storage of NS8500G2, and an optical fiber switch of FS8730.

[0039] As described above, when in use, after placing a number of big data processing components 5 to be installed inside the data cabinet 1, connect a number of power cords 7 to the big data processing components 5, then fix the number of big data processing components 5 inside the data cabinet 1, transmit data to the big data processing components 5 through the power cords 7, use the big data processing components 5 to process the data, and cool down the data cabinet 1 and the big data processing components 5 through the heat dissipation openings 3 and the big data processing components 5.

[0040] Reference Figure 1 、 Figure 2 、 Figure 3 、 Figure 4 、 Figure 5 、 Figure 6 、 Figure 7 、 Figure 8 And Figure 12 As shown, a number of fixing devices 6 for facilitating the installation of the big data processing components 5 and the power cords 7 are provided inside the data cabinet 1, and a switch mechanism for adjusting the fixing device 6 is further provided between the big data processing components 5 and the fixing device 6;

[0041] The fixing device 6 includes a fixing plate 601 fixed inside the data cabinet 1. Two guide rails 602 for facilitating the sliding of the big data processing components 5 are provided at the top of the fixing plate 601. A retaining rod 603 for limiting the power cord 7 is fixed between the two guide rails 602. A number of wire passing holes for facilitating the movement of the power cord 7 are opened on the retaining rod 603. A number of wire guiding mechanisms for facilitating the insertion of the power cord 7 into the big data processing components 5 are provided on the retaining rod 603. A wire clamping mechanism for clamping the power cord 7 is provided at one end of the wire guiding mechanism away from the big data processing components 5. The switch mechanism is provided below the fixing plate 601, and the lower part of the switch mechanism is in contact with the wire clamping mechanism. The power cord 7 is fixed by the wire clamping mechanism, so that the power cord 7 is fixed inside the wire guiding mechanism to prevent the power cord 7 from slipping out of the wire guiding mechanism during movement. The power cord 7 is driven to move by the wire guiding mechanism, so that the power cord 7 passes through the retaining rod 603 and is inserted into the big data processing components 5. The power cords 7 installed on the big data processing components 5 are opened and closed uniformly through the switch mechanism;

[0042] Clamping blocks are provided on the big data processing components 5. Extension parts extend from one end of the two clamping blocks away from the big data processing components 5 towards the middle. Protruding parts adapted to the clamping blocks are provided on one side of the two guide rails 602 facing each other. Grooves adapted to the extension parts are provided on the protruding parts. The protruding parts are set in a T shape. The clamping blocks are slidably installed on the protruding parts. Through the cooperation of the clamping blocks and the protruding parts, it is convenient for the big data processing components 5 to slide quickly on the guide rails 602.

[0043] The wire mechanism includes a main wire harness sleeve 605 inserted on the gear lever 603 and a support rod 607 fixed on the gear lever 603. One end of the support rod 607 away from the gear lever 603 is provided with a driving disc 606. One end of the main wire harness sleeve 605 away from the gear lever 603 is connected to the wire clamping mechanism. A positioning plate 615 is also fixed on the side of the gear lever 603. One end of the positioning plate 615 away from the gear lever 603 is fixed with a wire bundling ring 610. A secondary transmission block 614 is fixed on the top of the wire bundling ring 610. A main spring 612 is arranged between the secondary transmission block 614 and the wire clamping mechanism. The bottom of the driving disc 606 is rotatably installed on the support rod 607, and the side of the driving disc 606 is in contact with the wire clamping mechanism. By pushing the driving disc 606 to rotate around the support rod 607, after the driving disc 606 contacts the wire clamping mechanism, the wire clamping mechanism is pushed to move, so that the wire clamping mechanism drives the power cord 7 and the main wire harness sleeve 605 to move, and the power cord 7 is separated from the big data processing component 5.

[0044] One end of the driving disc 606 is provided with an inclined surface adapted to the main transmission block 613, and a positioning groove is also formed on the outer wall of the driving disc 606. One end of the driving disc 606 away from the support rod 607 is also provided with a handle for driving the driving disc 606 to rotate. By pushing the handle to drive the driving disc 606 to rotate, the driving disc 606 rotates around the support rod 607, so that the inclined surface of the driving disc 606 contacts the side of the main transmission block 613 away from the main spring 612, and the driving disc 606 drives the secondary wire harness sleeve 609 to move through the main spring 612, so that the secondary wire harness sleeve 609 drives the power cord 7 to be separated from the big data processing component 5. The cooperation between the main transmission block 613 and the inclined surface limits the driving disc 606 to prevent the elastic force released by the main spring 612 from pushing the driving disc 606 to move. It is also possible to drive the driving disc 606 to rotate by pushing the handle, so that the driving disc 606 rotates around the support rod 607, and the positioning groove of the driving disc 606 contacts the gear lever 603, and the gear lever 603 and the positioning groove of the driving disc 606 cooperate to limit the driving disc 606. The main spring 612 releases elastic force to drive the secondary transmission block 614 to move, so that the secondary transmission block 614 drives the power cord 7 to move through the secondary wire harness sleeve 609, and the power cord 7 is inserted into the inside of the big data processing component 5.

[0045] A secondary spring 621 is fixed on the top of the lock frame 604. A slider 619 is fixed on the top of the secondary spring 621. A wedge block 620 is fixed on the top of the slider 619. A wedge groove adapted to the wedge block 620 is formed at the bottom of the guide rail 602. A lifting groove adapted to the shift lever 616 is arranged in the middle of the slider 619. By the elastic force of the secondary spring 621, the lock frame 604 is pulled to move upward, so that the lock frame 604 moves above the handle, thus facilitating people to push several driving discs 606 individually.

[0046] A flip plate 101 and a plurality of ventilation plates 102 are provided at one end of the data cabinet 1 away from the cabinet door 2. A plurality of ventilation holes are provided on the flip plate 101. The flip plate 101 is rotatably installed on the upper half of the data cabinet 1, and the plurality of ventilation plates 102 are rotatably installed on the lower half of the end of the data cabinet 1 away from the cabinet door 2. By pulling the flip plate 101 to rotate, the flip plate 101 is separated from the data cabinet 1, so that it is convenient for people to turn the drive disk 606 from the rear of the data cabinet 1, which is convenient and quick. The air intake of the data cabinet 1 is adjusted by a plurality of rotatable ventilation plates 102, so that the interior of the data cabinet 1 can be quickly cooled.

[0047] By adopting the above technical solution:

[0048] When in use, the driving disk 606 is driven to rotate by pushing the handle, so that the driving disk 606 rotates around the support rod 607, so that the inclined surface of the driving disk 606 contacts the side of the main transmission block 613 away from the main spring 612, so that the driving disk 606 drives the secondary wiring harness sleeve 609 to move through the main spring 612, so that the secondary wiring harness sleeve 609 drives the power cord 7 to separate from the big data processing component 5, and the power cord 7 moves to the inner wall of the blocking rod 603 to protect the power connector of the power cord 7. The main transmission block 613 cooperates with the inclined surface to limit the driving disk 606 to prevent the elastic force released by the main spring 612 from pushing the driving disk 606 to move. The driving disk 606 can also be driven to rotate by pushing the handle so that the driving disk 606 rotates around the support rod 6 07 rotates, so that the positioning groove of the driving disk 606 contacts the shift rod 603, so that the shift rod 603 cooperates with the positioning groove of the driving disk 606 to limit the driving disk 606, and the main spring 612 releases the elastic force to drive the auxiliary transmission block 614 to move, so that the auxiliary transmission block 614 drives the power cord 7 to move through the auxiliary wiring harness sleeve 609, and the power cord 7 is inserted into the inside of the big data processing component 5, thereby realizing rapid disassembly and assembly of the big data processing component 5 and the power cord 7, and the main wiring harness sleeve 605 and the auxiliary wiring harness sleeve 609 can also protect the power cord 7, which not only reduces the maintenance cost of the big data processing component 5 and the power cord 7, but also reduces the time for disassembly and assembly of the big data processing component 5 and the power cord 7, thereby improving work efficiency.

[0049] Secondly, refer to Figure 7 , Figure 8 , Figure 9 and Figure 11As shown in the figure, the wire clamping mechanism includes a sub-wire harness sleeve 609 fixed on the main wire harness sleeve 605. Two through slots 617 are provided on the sub-wire harness sleeve 609. Two elastic pieces 618 for clamping the power cord 7 are fixed inside the two through slots 617. A number of pressure blocks are arranged on the opposite sides of the two elastic pieces 618. The top of the sub-wire harness sleeve 609 is fixed with a main transmission block 613. The free end of the main spring 612 is fixed to the side of the main transmission block 613. The side of the main transmission block 613 away from the main spring 612 is in contact with the driving disc 606. After the power cord 7 is inserted into the sub-wire harness sleeve 609, the power cord 7 pushes the elastic piece 618 to deform, so that the elastic piece 618 releases elastic force to press on the power cord 7, and the pressure blocks on the elastic piece 618 clamp and fix the power cord 7, so that the power cord 7 is inserted into the main wire harness sleeve 605 and the sub-wire harness sleeve 609.

[0050] By adopting the above technical solution:

[0051] During use, after the power cord 7 is inserted into the sub-wire harness sleeve 609, the power cord 7 pushes the elastic piece 618 to deform, so that the elastic piece 618 releases elastic force to press on the power cord 7, and the pressure blocks on the elastic piece 618 clamp and fix the power cord 7, so that the power cord 7 is inserted into the main wire harness sleeve 605 and the sub-wire harness sleeve 609, thus facilitating people to quickly classify and fix a number of power cords 7, reducing the preparatory work before installation, and further shortening the installation time.

[0052] Again, referring to Figure 6 、 Figure 7 and Figure 8 As shown in the figure, a limiting rod 608 is fixed on the outer wall of the main wire harness sleeve 605. Two limiting blocks 611 are fixed on the outer wall of the wire bundling ring 610. One end of the limiting rod 608 away from the main wire harness sleeve 605 penetrates through the limiting block 611 and extends to the other side of the limiting block 611. The limiting block 611 limits the limiting rod 608, so that the limiting rod 608 limits the main wire harness sleeve 605, preventing the main wire harness sleeve 605 from rotating during movement, so that the power cord 7 rotates, resulting in poor contact between the power cord 7 and the big data processing component 5, affecting the normal use of the big data processing component 5.

[0053] By adopting the above technical solution:

[0054] During use, when the main wire harness sleeve 605 is inserted into the shift lever 603, the shift lever 603 is limited by the cooperation of the shift lever 603 and the limiting rod 608, so that the shift lever 603 limits the limiting rod 608, preventing the elastic force released by the main spring 612 from being too large and driving the main wire harness sleeve 605 to collide with the big data processing component 5, damaging the main wire harness sleeve 605 or the big data processing component 5, and improving the safety of the device.

[0055] Finally, referring to Figure 1 and Figure 12 As shown, a locking frame 604 is provided below a fixing plate 601. The bottom of the locking frame 604 is recessed inward to form a driving groove. The locking frame 604 is slidably mounted at the bottom of a guide rail 602. A handle is disposed inside the driving groove. By pushing the locking frame 604 to move, the locking frame 604 drives a plurality of handles to move, the plurality of handles drive a plurality of driving disks 606 to rotate, the locking frame 604 moves a plurality of power lines 7 simultaneously, and the plurality of power lines 7 are inserted into and separated from a big data processing component 5 simultaneously.

[0056] By adopting the above technical solution:

[0057] During use, by pushing the locking frame 604 to move, the locking frame 604 drives a plurality of handles to move, the plurality of handles drive a plurality of driving disks 606 to rotate, the locking frame 604 moves a plurality of power lines 7 simultaneously, and the plurality of power lines 7 are inserted into and separated from the big data processing component 5 simultaneously, which facilitates the staff to quickly disassemble and assemble the big data processing component 5 and improves the convenience of the device.

[0058] The embodiments of the present invention have been described in detail above in conjunction with the accompanying drawings. However, the present invention is not limited thereto. Various changes can be made without departing from the spirit of the present invention within the knowledge scope of those skilled in the art to which the present invention pertains.

Claims

1. A big data processing device based on the Internet of Things, characterized in that, Including: A data cabinet (1), on the front of which a cabinet door (2) is provided. A placement cavity is formed by inward depression in the middle of the data cabinet (1). Inside the placement cavity, several big data processing components (5) for processing big data are provided. On the big data processing components (5), several power supply lines (7) for providing power are also provided. On the top of the data cabinet (1), a heat dissipation port (3) for cooling the big data processing components (5) is provided, and on both sides of the data cabinet (1), several heat conduction tubes (4) for cooling it are also provided; Inside the data cabinet (1), several fixing devices (6) for facilitating the installation of the big data processing components (5) and the power supply lines (7) are provided. Between the big data processing components (5) and the fixing devices (6), a switching mechanism for adjusting the fixing devices (6) is also provided; The fixing device (6) includes a fixing plate (601) fixed inside the data cabinet (1). On the top of the fixing plate (601), two guide rails (602) for facilitating the sliding of the big data processing components (5) are provided. Between the two guide rails (602), a retaining rod (603) for limiting the power supply lines (7) is fixed. Several wire passing holes for facilitating the movement of the power supply lines (7) are provided on the retaining rod (603). On the retaining rod (603), several wire guiding mechanisms for facilitating the insertion of the power supply lines (7) into the big data processing components (5) are provided. At the end of the wire guiding mechanism far from the big data processing components (5), a wire clamping mechanism for clamping the power supply lines (7) is provided; On the big data processing components (5), clamping blocks are provided. At the ends of the two clamping blocks far from the big data processing components (5), extension parts extend towards the middle. On the opposite sides of the two guide rails (602), convex parts adapted to the clamping blocks are provided. On the convex parts, grooves adapted to the extension parts are provided; The wire guiding mechanism includes a main wire harness sleeve (605) inserted on the retaining rod (603) and a support rod (607) fixed on the retaining rod (603). At the end of the support rod (607) far from the retaining rod (603), a driving disk (606) is provided. The end of the main wire harness sleeve (605) far from the retaining rod (603) is connected to the wire clamping mechanism. A positioning plate (615) is also fixed on the side of the retaining rod (603). At the end of the positioning plate (615) far from the retaining rod (603), a wire bundling ring (610) is fixed. On the top of the wire bundling ring (610), a secondary transmission block (614) is fixed. Between the secondary transmission block (614) and the wire clamping mechanism, a main spring (612) is provided; The wire clamping mechanism includes a secondary wire harness sleeve (609) fixed on the main wire harness sleeve (605). On the top of the secondary wire harness sleeve (609), a main transmission block (613) is fixed; One end of the driving disk (606) is provided with an inclined surface adapted to the main transmission block (613), and a positioning groove is also provided on the outer wall of the driving disk (606). At the end of the driving disk (606) far from the support rod (607), a handle for facilitating the rotation of the driving disk (606) is also provided; A limiting rod (608) is fixed to the outer wall of the main wire harness sleeve (605), and two limiting blocks (611) are fixed to the outer wall of the wire harness loop (610). One end of the limiting rod (608) away from the main wire harness sleeve (605) penetrates through the limiting block (611) and extends to the other side of the limiting block (611). The switch mechanism includes a lock frame (604) arranged below a fixed plate (601). A driving groove is formed by the bottom of the lock frame (604) being recessed inward. The lock frame (604) is slidably installed at the bottom of the guide rail (602), and the handle is arranged inside the driving groove.

2. The big data processing device based on the Internet of Things according to claim 1, characterized in that, Two through grooves (617) are formed in the secondary wire harness sleeve (609). Two elastic pieces (618) for clamping the power line (7) are fixed inside the two through grooves (617). A plurality of pressure blocks are arranged on the opposite sides of the two elastic pieces (618).

3. The big data processing device based on the Internet of Things according to claim 2, characterized in that, A secondary spring (621) is fixed to the top of the lock frame (604). A slider (619) is fixed to the top of the secondary spring (621). A wedge block (620) is fixed to the top of the slider (619). A wedge groove adapted to the wedge block (620) is formed in the bottom of the guide rail (602). A lifting groove adapted to the shift lever (616) is arranged in the middle of the slider (619).

4. A big data processing device based on the Internet of Things according to claim 1, characterized in that, A turning plate (101) and a plurality of ventilation plates (102) are arranged at one end of the data cabinet (1) away from the cabinet door (2). A plurality of ventilation openings are arranged on the turning plate (101). The turning plate (101) is rotatably installed in the upper half of the data cabinet (1), and the plurality of ventilation plates (102) are rotatably installed in the lower half of the end of the data cabinet (1) away from the cabinet door (2).

Images