A device for financial big data analysis

Abstract

The application provides a financial big data analysis device, which structurally comprises a host, a connecting structure, a display screen, a control end and a supporting column. The connecting structure is further improved, and the data recognition part can change the assembly position of the host by the fixing plate, so that the host can be installed on the back area of the display screen. The slot on the side of the data recognition part can directly embed the corresponding hard disk, the elastic part of the slot area can increase the fixation of the embedded hard disk, prevent the shaking instability caused by the suspension, improve the stability of data recognition and analysis, and change the host and the slot position to avoid the inconvenience caused by the squatting of the operator to connect the hard disk and the host when embedding the hard disk. The efficiency of data recognition is indirectly improved, and the elastic part of the slot area can rebound through the rebound effect after the hard disk is pulled out, so that it can cover the slot and avoid dust pollution during daily idling.

Description

Technical Field

[0001] This invention relates to the field of data analysis technology, and more specifically to a device for financial big data analysis. Background Technology

[0002] Financial big data refers to the massive amounts of data generated by financial institutions, manufacturers, individuals, and government agencies in their business transactions and related behaviors. As a result, after the generation of financial big data, relevant institutions will use analytical devices to identify and analyze the data. Through these devices, customers' transaction information, online community communication behavior, and fund flows can be accurately analyzed to understand their consumption habits, thereby formulating more precise marketing and advertising strategies or assessing their credit status to control transaction risks. In summary, the inventors have found that existing analytical devices have the following main drawbacks: because current analytical devices require an embedded electrical connection to other data hard drives during use, the device cover must be removed to expose the internal host port, which causes inconvenience in hard drive embedding. In addition, because the host device is located below the display area, operators need to squat and stand frequently each time they connect to the hard drive, which can cause dizziness for people with hypoglycemia. According to the description, the current analysis device cannot achieve the effect of ease of use, which reduces the ease of use of the device. Summary of the Invention

[0003] The technical solution adopted by the present invention to achieve the technical objective is: a financial big data analysis device, the structure of which includes: a host, a connecting structure, a display screen, a control terminal, and a support column. The host is embedded in the back area of ​​the connecting structure, the display screen is attached to the surface of the connecting structure, the control terminal is embedded in the lower middle part of the connecting structure and electrically connected to the host, and the support column is fixed to the lower end of the control terminal.

[0004] As a further improvement of the present invention, the connecting structure includes an assembly plate, an electrical connection groove, an adhesive layer, a connecting block, a data identification component, a slot, and a fixing plate. The lower surface of the assembly plate is penetrated by the electrical connection groove. The adhesive layer and the assembly plate are an integral structure. The connecting block is embedded in the back area of ​​the blocking plate and communicates with the electrical connection groove. The data identification component is connected to the connecting block. The slot is located on the side of the data identification component and is an integral structure. The fixing plate overlaps the back of the data identification component. The slot is located in the spacing area between the display screen and the host through the data identification component. The electrical connection groove on the assembly plate is rectangular. The adhesive layer is flattened. The connecting block is a solid square and made of metal. The outer shell of the data identification component is made of plastic. There are three slots on the side of the data identification component.

[0005] As a further improvement of the present invention, the slot is provided with a locking block, a connecting frame, a loading component, a positioning block, an elastic component, and a through cavity. The locking block is disposed at the edge of the connecting frame. The inner layer of the connecting frame overlaps with the outer layer of the loading component. The positioning block is fixed to the inner wall surface of the loading component. The elastic component is fixedly connected to the positioning block and covers the through cavity. The through cavity passes through the central area of ​​the loading component and the connecting frame. The loading component is fixed to the side center of the data identification component by the locking block of the connecting frame. The through cavity communicates with the interior of the data identification component. There are four sets of locking blocks on the edge of the connecting frame. The shape of the loading component is consistent with the shape of the connecting frame. There are two sets of positioning blocks and elastic components arranged symmetrically, with a gap in the middle area. The through cavity is opened in a straight line.

[0006] As a further improvement of the present invention, the fixing plate is provided with a carrier, a fitting wall, a protrusion, a vertical rail, a slider, and a cover. The carrier and the fitting wall are an integrated structure. The protrusion is fixed to the center of the inner surface of the carrier through the fitting wall. The vertical rail is located on the upper middle part of both sides of the carrier. The slider is adapted to the vertical rail. The two sides of the cover are welded to the slider and connected to the top of the carrier through the slider. The cover covers the top of the overlapping part of the main unit and the connecting structure through the slider. The carrier is fixedly connected to the center of the lower end of the main unit through the protrusion of the fitting wall. The carrier is U-shaped and made of stainless steel. The fitting wall is flattened. The protrusion is solid. The vertical rail is provided on the inner layer of the upper end of both sides of the carrier and is opened in a vertical direction. The length of the slider is the same as the depth of the vertical rail. There is a slider on each side of the cover.

[0007] As a further improvement of the present invention, a locking body, a thermostat, an air outlet, and a power block are added to the lower center of the cover. The lower end of the locking body is fixedly connected to the top center of the thermostat. The surface of the thermostat and the air outlet are an integrated structure. The power block is embedded in the lower center of the thermostat and electrically connected. The thermostat is fixed to the lower center of the cover by the locking block. The thermostat is embedded in the interior of the main unit by the lower power block and electrically connected. The locking body and the thermostat are perpendicular to each other. The power block is located at the lowest center of the thermostat and is sealed at the junction with the thermostat.

[0008] As a further improvement of the present invention, the display screen includes a main screen, a protective frame, a pull block, an overlapping block, a rotating wheel, and an electrical connecting shaft. The main screen is embedded in the internal area of ​​the protective frame and overlaps with it. The pull block is welded to the upper center of the protective frame. The overlapping block is located on the back of the main screen. The rotating wheel is embedded in the lower two sides of the protective frame. The electrical connecting shaft passes through the center of the rotating wheel and enters the interior of the main screen for electrical connection. The main screen is embedded in the control terminal through the rotating wheel and the electrical connecting shaft of the protective frame and is electrically connected. The rotating wheel and the interior of the control terminal are fitted with a clearance. The overlapping block on the back of the main screen overlaps with the surface of the connecting structure. The surface of the main screen is made of tempered glass. The pull block is made of plastic with rounded corners. The overlapping block is square. One rotating wheel is provided on each side of the lower end of the protective frame. The electrical connecting shaft is arranged in a horizontal straight line and passes through the center of the rotating wheel with a corresponding gap.

[0009] As a further improvement of the present invention, the wheel is provided with a limiting groove, a wheel body, a parallel layer, a restraining block, and a ball bearing. The limiting groove passes through the center of the wheel body. The upper and lower layers of the wheel body and the parallel layer are an integrated structure. The restraining block falls into the center of the surface edge of the parallel layer and is spaced with the limiting groove. The ball bearing is embedded in the center area of ​​the restraining block. The limiting groove of the wheel body is penetrated by an electrical connecting shaft and is spaced with the shaft. The wheel body is fixedly connected to the lower two sides of the protective frame through the lower parallel layer. The limiting groove passes through the center of the wheel body in a vertical direction. The surface of the parallel layer carries four sets of circular restraining blocks arranged in four directions. The ball bearing is spherical and embedded inside the restraining block. The lower parallel layer of the wheel body carries a square groove.

[0010] Compared with the prior art, the present invention has the following beneficial effects: 1. With further improvements to the connecting structure, the present invention allows the assembly position of the host to be changed by the fixed plate through the set data identification component, so that the host can be installed on the back area of ​​the display screen. Thus, the slot on the side of the data identification component allows the corresponding hard drive to be directly embedded. The elastic component in the slot area increases the stability of the hard drive after embedding, preventing wobbling and instability caused by suspension, and improving the stability of data identification and analysis. Therefore, by changing the position of the host and the slot, the inconvenience caused by the operator having to squat down to connect the hard drive to the host when embedding the hard drive can be avoided, which indirectly improves the efficiency of data identification. Furthermore, the elastic component in the slot area can rebound after the hard drive is pulled out, so that it can cover the slot and avoid dust contamination during daily idle time.

[0011] 2. With further improvements to the fixing plate, the present invention allows the main unit to be vertically embedded through the U-shaped support member, while the protrusion can restrain the center of the main unit. At the same time, the top cover can be combined with the slider to fix the top of the main unit, thereby improving the fixation of the main unit and the connecting structure and the stability of the electrical connection with the control terminal and the display screen. Furthermore, the thermostat carried at the center of the lower end of the cover can be vertically inserted into the main unit. At the same time, the power block is electrically connected to the main unit, so that the thermostat can balance the internal temperature of the main body and avoid overheating caused by the main unit's continuous operation for a long time.

[0012] 3. With further improvements to the display screen, the protective frame enhances the edge hardness of the main screen. The rotating wheels on both sides of the lower end of the protective frame allow the electrical connection shaft to pass through, ensuring a stable electrical connection between the main screen and the control terminal. For example, when analyzing confidential data, the protective frame's pull block can rotate the rotating wheels, allowing the main screen to rotate and eventually align with the control terminal's surface. This prevents the screen from being spied on during confidential data analysis. Furthermore, the folding mechanism protects the main screen surface during normal storage, preventing dust accumulation and impacts from external objects during transport. Attached Figure Description

[0013] Figure 1 This is a schematic diagram of a device used for financial big data analysis.

[0014] Figure 2 This is a three-dimensional structural diagram of an improved connection structure.

[0015] Figure 3 This is a cross-sectional structural diagram of an improved slot.

[0016] Figure 4 This is a schematic diagram of a three-dimensional structure of an improved fixed plate.

[0017] Figure 5 This is a three-dimensional structural diagram of a newly added component at the lower center of a cover plate.

[0018] Figure 6 This is a three-dimensional structural diagram of an improved display screen.

[0019] Figure 7 This is a three-dimensional structural diagram of an improved rotary wheel.

[0020] In the diagram: Main unit-1, Connecting structure-2, Display screen-3, Control terminal-4, Support column-5, Assembly plate-21, Electrical connection groove-22, Adhesive layer-23, Connecting block-24, Data identification component-25, Slot-26, Fixing plate-27, Card block-261, Connecting frame-262, Loading component-263, Positioning block-264, Elastic component-265, Through cavity-266, Bearing component-271, Adhesive wall -272, bump -273, vertical rail -274, slider -275, cover -276, locking body -a1, thermostatic body -a2, air outlet -a3, power block -a4, main screen -31, protective frame -32, pull block -33, overlapping block -34, rotating wheel -35, electrical connection shaft -36, limiting groove -351, wheel body -352, parallel layer -353, restraining block -354, ball bearing -355. Detailed Implementation

[0021] The present invention will be further described below with reference to the accompanying drawings: Example

[0022] Figures 1 to 3 As shown: This invention provides a device for financial big data analysis. Its structure includes a host 1, a connecting structure 2, a display screen 3, a control terminal 4, and a support column 5. The host 1 is embedded in the back area of ​​the connecting structure 2, the display screen 3 is attached to the surface of the connecting structure 2, the control terminal 4 is embedded in the lower middle part of the connecting structure 2 and is electrically connected to the host 1, and the support column 5 is fixed to the lower end of the control terminal 4.

[0023] The connecting structure 2 includes an assembly plate 21, an electrical connection groove 22, an adhesive layer 23, a connecting block 24, a data identification component 25, a slot 26, and a fixing plate 27. The lower surface of the assembly plate 21 is penetrated by the electrical connection groove 22. The adhesive layer 23 and the assembly plate 21 are integrated. The connecting block 24 is embedded in the back area of ​​the blocking plate 21 and communicates with the electrical connection groove 22. The data identification component 25 is connected to the connecting block 24. The slot 26 is located on the side of the data identification component 25 and is an integrated structure. The fixing plate 27 overlaps the back of the data identification component 25. The slot 26 is located in the gap area between the display screen 3 and the host 1 through the data identification component 25. The electrical connection groove 22 on the assembly plate 21 is rectangular. The adhesive layer 23 is flattened. The connecting block 24 is a solid square and made of metal. The outer shell of the data identification component 25 is made of plastic. There are three slots 26 on the side of the data identification component 25. The assembly plate 21 can stably adapt to the rectangular component through the rectangular electrical connection slot 22, so that the component can complete the electrical connection with the data identification component 25 through the electrical connection slot 22 of the assembly plate 21. The bonding layer 23 can be parallel and overlapped with the component through the flattened shape. The connecting block 24 can be embedded in the component through its square shape and metal material, and achieves the effect of conductivity through the metal properties. The data identification component 25 can achieve shell insulation through the outer plastic. The slot 26 can be quickly connected to the corresponding data hard drive by being located on the side of the data identification component 25. At the same time, the number of three slots can increase the number of hard drives that can be received, and further improve the effect of reading data from each hard drive.

[0024] The slot 26 includes a locking block 261, a connecting frame 262, a loading component 263, a positioning block 264, an elastic element 265, and a through cavity 266. The locking block 261 is located at the edge of the connecting frame 262, and the inner layer of the connecting frame 262 overlaps with the outer layer of the loading component 263. The positioning block 264 is fixed to the inner wall surface of the loading component 263. The elastic element 265 is fixedly connected to the positioning block 264 and covers the through cavity 266. The through cavity 266 penetrates through the loading component 263 and the connecting frame 262. In the central area of ​​62, the loading component 263 is fixed to the side center of the data identification component 25 by the locking block 261 of the connecting frame 262, and the through cavity 266 communicates with the interior of the data identification component 25; the locking block 261 is provided in four sets on the edge of the connecting frame 262, the shape of the loading component 263 is consistent with the shape of the connecting frame 262, the positioning block 264 and the elastic component 265 are provided in two sets and arranged symmetrically, and there is a gap in the middle area; the through cavity 266 is opened in a straight line. The number of locking blocks 261 at the edges of the connecting frame 262 can improve the connection between the connecting frame 262 and the component. The loading member 263 can coincide with the connecting frame 262 according to its own shape. The positioning block 264 can determine the position of the elastic member 265 according to its own position and number. Then, the spacing between the elastic members 265 can facilitate the embedding of the hard drive. Subsequently, the elastic member 265 rebounds, which can improve the stability when the hard drive is connected to the component. The through cavity 266, by being straight, can avoid the connection failure caused by the inability to align the position of the hard drive with the component's insertion hole after insertion.

[0025] The specific functions and operation procedures of this embodiment are as follows: In this invention, First: The financial big data analysis device can change the placement of the host 1 through the improved connecting structure 2, so that the host 1 can be positioned parallel to the corresponding workbench. Then, the connecting structure 2 can control the host 1 through the control terminal 4, so that the display screen 3 on the upper edge of the control terminal 4 can read and analyze the program of the host 1 and the hard disk data inserted on the connecting structure 2 according to the instructions of the control terminal 4. During the process, the support column 5 at the bottom of the control terminal 4 can fill the hollow area at the bottom of the control terminal 4, so that the bottom of the control terminal 4 is supported and avoids tilting and breakage caused by continuous force. Second: The assembly plate 21 of the connecting structure 2 can overlap the surface of the data identification component 25, so that the electrical connection slot 22 can be connected with the data identification component 25. For this purpose, the control terminal 4 can complete the electrical connection with the data identification component 25 through the electrical connection slot 22. Then, with the power support of the data identification component 25, when the control terminal 4 is powered on, it can drive the display screen 3 to work, so that the display screen 3 can overlap with the bonding layer 23. Then, the data identification component 25 can replace the host 1 and connect to the hard drive through the side slot 26, so that the host 1 will respond after the hard drive is inserted. Finally, the control terminal 4 is used for electrical control to achieve rapid reading and analysis of the data inside the hard drive. In addition, with the cooperation of the side slot 26 of the data identification component 25, it can replace the original process of the operator squatting down to insert the hard drive, improve the convenience of reading the data inside the hard drive and the convenience of hard drive disassembly and assembly. The data identification component 25 can be fixedly connected to the host 1 through the fixing plate 27, so that the host 1 can be used vertically at the same time through the data identification component 25 and the display screen 3. Third: The loading component 263 of the slot 26 can be embedded inside the connecting frame 262. Then, the connecting frame 262 can use the edge locking block 261 to complete the fixed connection with the edge of the data identification component 25. Then, the positioning blocks 264 on both sides inside the loading component 263 can fix the two sets of elastic components 265, so that the two sets of elastic components 265 can cooperate according to the distance between them to allow the hard drive to pass through the cavity 266. After passing through the cavity 266, it can be precisely connected with the data identification component 25. Finally, the elastic component 265 rebounds to clamp the hard drive connection part, which can improve the connection stability between the hard drive and the data identification component 25. Conversely, after the hard drive is removed from the side of the data identification component 25, the elastic component 265 rebounds to cover the cavity 266 again. This can protect the cavity 266 area when it is not in use, preventing the accumulation of dust and impurities and subsequent poor contact. Example

[0026] Figures 4 to 5 As shown: This invention provides a device for financial big data analysis. Its structure includes a fixed plate 27 with a support member 271, a fitting wall 272, a protrusion 273, a vertical rail 274, a slider 275, and a cover 276. The support member 271 and the fitting wall 272 are integrated. The protrusion 273 is fixed to the center of the inner surface of the support member 271 through the fitting wall 272. The vertical rail 274 is located on the upper middle part of both sides of the support member 271. The slider 275 is adapted to the vertical rail 274. The cover 276 is welded to the slider 275 on both sides and connected to the top of the support member 271 through the slider 275. 76 The top of the overlapping part of the host 1 and the connecting structure 2 is covered by the slider 275. The support member 271 is fixedly connected to the lower center of the host 1 by the protrusion 273 of the fitting wall 272. The support member 271 is U-shaped and made of stainless steel. The fitting wall 272 is flat. The protrusion 273 is solid. The vertical rail 274 is provided on the inner layer of the upper part of both sides of the support member 271 and is opened in a vertical direction. The length of the slider 275 is the same as the depth of the vertical rail 274. The cover 276 is provided with a slider 275 on each side. The support member 271, with its "U" shape, can be adapted to the external shape of the component. At the same time, its anti-rust effect can prevent scratches on the outer layer of the component caused by rust. The fitting wall 272, with its polished effect, can improve the overlap with the component. The protrusion 273, with its solid shape, can be directly inserted into the center of the component to achieve a restraining effect. The vertical rails 274, by their own number and position on the support member 271, can connect with the sliders 275 at both ends of the cover 276. Therefore, the cover 276 can cover and fix the top of the component. The sliders 275, according to their own length, can be adapted to the depth of the vertical rails 274 to avoid assembly failure, thus achieving the effect of easy assembly and disassembly.

[0027] The cover 276 is further provided with a locking body a1, a thermostat a2, an air outlet a3, and a power block a4 at its lower center. The lower end of the locking body a1 is fixedly connected to the top center of the thermostat a2. The surface of the thermostat a2 and the air outlet a3 are an integrated structure. The power block a4 is embedded in the lower center of the thermostat a2 and electrically connected. The thermostat a2 is fixed to the lower center of the cover 276 by the locking block a1. The thermostat a2 is embedded in the interior of the main unit 1 by the lower power block a4 and electrically connected. The locking body a1 and the thermostat a2 are perpendicular to each other. The power block a4 is located at the lower center of the thermostat a2 and the junction with the thermostat a2 is sealed. The perpendicularity between the locking body a1 and the thermostat a2 ensures that the thermostat a2 is fixed in a straight line. The power block a4 can directly connect with the inside of the component and simultaneously energize it after the thermostat a2 is inserted into the component, depending on its own position. Then, the sealing treatment at the connection point with the thermostat a2 can prevent water molecules and dust from intruding and causing poor contact.

[0028] The specific functions and operation procedures of this embodiment are as follows: In this invention, First: Based on the further improvement of the fixing plate 27, the host 1 can be embedded by the U-shaped support member 271. Then the host 1 can overlap with the fitting wall 272 of the support member 271. Finally, the protrusion 273 on the fitting wall 272 can be embedded in the center of the lower edge of the host 1, so as to achieve the fixation of the position of the host 1. Then, the two vertical rails 274 equipped on the upper inner side of both sides of the support member 271 can adapt to the length of the slider 275 through their own depth, so that the cover 276 can be embedded in the top area of ​​the support member 271 in a vertical position. Thus, the cover 276 can cover the top of the host 1, so as to achieve the stable installation of the host 1 on the back area of ​​the connecting structure 2, and improve the fixation effect of the host 1, the connecting structure 2, and the control end 4. Second: The newly added locking body a1 at the lower center of the cover 276 can vertically fix the thermostat a2, so that the air outlet a3 of the thermostat a2 will be exposed in the internal area of ​​the host 1. Then, the thermostat a2 can be vertically inserted into the host 1 as the cover 276 is embedded. Then, the power block a4 at the lower end of the thermostat a2 can be stably electrically connected to the host 1. At the same time, after the thermostat a2 is started by the power block a4, the thermostat a2 can use the control terminal 4 to control its own temperature to balance and regulate the internal temperature of the host 1, avoiding the internal overheating caused by the host 1 operating for a long time, and ensuring that the data can be analyzed accurately and stably for a long time. Example

[0029] Figures 6 to 7 As shown: This invention provides a device for financial big data analysis. Its structure includes a main screen 31, a protective frame 32, a pull block 33, an overlapping block 34, a rotating wheel 35, and an electrical connecting shaft 36. The main screen 31 is embedded in the internal area of ​​the protective frame 32 and overlaps with it. The pull block 33 is welded to the upper center of the protective frame 32. The overlapping block 34 is located on the back of the main screen 31. The rotating wheel 35 is embedded on both sides of the lower end of the protective frame 32. The electrical connecting shaft 36 passes through the center of the rotating wheel 35 and enters the interior of the main screen 31 for electrical connection. The main screen 31 is connected to the protective frame 32 via the rotating wheel 35 and the electrical connecting shaft 36. The connecting shaft 36 is embedded inside the control terminal 4 and electrically connected. The rotating wheel 35 is clearance-fitted with the inside of the control terminal 4. The overlapping block 34 on the back of the main screen 31 overlaps with the surface of the connecting structure 2. The surface of the main screen 31 is made of tempered glass. The pull block 33 is made of plastic with rounded corners. The overlapping block 34 is square. There is one rotating wheel 35 on each side of the lower end of the protective frame 32. The electrical connecting shaft 36 is arranged in a horizontal straight line and passes through the center of the rotating wheel 35 while having a corresponding gap with the center of the rotating wheel 35. The main screen 31, with its tempered glass surface, enhances its durability and prevents breakage from minor impacts. The pull block 33, made of plastic and with rounded corners, improves the comfort of manual pulling and prevents scratches. The overlapping block 34, with its square shape, achieves a perpendicular effect to the main screen 31, allowing the main screen 31 to stably fit against the component and prevent tilting. The two rotating wheels 35 at the lower end of the protective frame 32 allow the main screen 31 to rotate, enabling it to overlap with the component surface. At the same time, the gap between the center and the electrical connection shaft 36 prevents the rotation from affecting the normal operation of the electrical connection shaft 36.

[0030] The rotating wheel 35 includes a limiting groove 351, a wheel body 352, a parallel layer 353, a restraining block 354, and ball bearings 355. The limiting groove 351 passes through the center of the wheel body 352. The upper and lower layers of the wheel body 352 and the parallel layer 353 are an integrated structure. The restraining block 354 falls into the center of the surface edge of the parallel layer 353 and is spaced to fit the limiting groove 351. The ball bearings 355 are embedded in the central area of ​​the restraining block 354. The limiting groove of the wheel body 352... 351 is penetrated by the electrical connecting shaft 36 and is clearance-fitted. The wheel body 352 is fixedly connected to the lower sides of the protective frame 32 through the lower parallel layer 353. The limiting groove 351 penetrates the center of the wheel body 352 in a vertical direction. The surface of the parallel layer 353 carries four sets of circular restraining blocks 354 arranged in four directions. The ball bearing 355 is spherical and embedded in the restraining block 354. The parallel layer 353 at the lower end of the wheel body 352 carries a square groove. The defined groove 351, through its vertical orientation, ensures that the components are arranged in a straight line. The parallel layer 353, through four sets of restraint blocks 354, determines the position of the four ball bearings 355, so that the wheel 352 can improve its rotational smoothness through the ball bearings 355 when it rotates. The lower end of the parallel layer 353 of the wheel 352 can be stably adapted to the component through a square groove, thereby achieving stability in driving the component to rotate.

[0031] The specific functions and operation procedures of this embodiment are as follows: In this invention, First: The main screen 31 of the display screen 3 can be made of tempered glass, avoiding breakage caused by minor bumps. Then, the outer protective frame 32 of the main screen 31 can strengthen the hardness of the edges of the main screen 31. The pull block 33 at the top center of the protective frame 32 can be manually controlled by the operator using plastic material and rounded corners. The electrical connection shaft 36 at the bottom of the main screen 31 can be connected to the power supply of the control terminal 4, so that the control terminal 4 can electrically control the main screen 31 through the electrical connection shaft 36. For example, when reading and analyzing confidential data, the operator can pull the pull block 33 at the top center of the protective frame 32, forcing the rotating wheels 35 on both sides at the bottom to rotate. Therefore, the main screen 31 can overlap the surface of the control terminal 4, preventing others from peeping at the screen. At the same time, the overlap with the control terminal 4 can facilitate subsequent handling, preventing the glass surface from being directly exposed to the outside and impacting external objects, further improving the protection of the main screen 31. Second: The wheel body 352 of the rotating wheel 35 can allow the electrical connecting shaft 36 to pass through the vertical limiting groove 351, so that there is a corresponding gap between the electrical connecting shaft 36 and the limiting groove 351, so that the electrical connecting shaft 36 is not affected when the wheel body 352 rotates, avoiding the power failure caused by the electrical connecting shaft 36 being dragged during rotation. Subsequently, the wheel body 352 can be fixedly connected to both sides of the protective frame 32 through the square groove carried by the lower parallel layer 353, thereby improving the stability of the wheel body 352 driving the main screen 31 to rotate. During the process, the restraining block 354 carried by the upper parallel layer 353 of the wheel body 352 can determine the position of the ball bearing 355, so that the wheel body 352 can drive the ball bearing 355 to rotate when it rotates. Therefore, it can improve the smoothness of the rotation of the wheel body 352 inside the control end 4 and prevent the occurrence of jamming.

[0032] Any technical solution that achieves the above-mentioned technical effects by utilizing the technical solutions described in this invention, or by designing similar technical solutions by those skilled in the art under the inspiration of the technical solutions described in this invention, falls within the protection scope of this invention.

Claims

1. A device for financial big data analysis, comprising the following structure: The host (1), connecting structure (2), display screen (3), control terminal (4), and support column (5) are characterized in that: the host (1) is embedded in the back area of ​​the connecting structure (2), the display screen (3) is attached to the surface of the connecting structure (2), the control terminal (4) is embedded in the lower middle part of the connecting structure (2) and electrically connected to the host (1), and the support column (5) is fixed to the lower end of the control terminal (4).

2. The financial big data analysis device according to claim 1, characterized in that: The connecting structure (2) includes an assembly plate (21), an electrical connection groove (22), an adhesive layer (23), a connecting block (24), a data identification component (25), a slot (26), and a fixing plate (27). The lower surface of the assembly plate (21) is penetrated by the electrical connection groove (22). The adhesive layer (23) and the assembly plate (21) are an integrated structure. The connecting block (24) is embedded in the back area of ​​the blocking plate (21) and communicates with the electrical connection groove (22). The data identification component (25) is connected to the connecting block (24). The slot (26) is located on the side of the data identification component (25) and is an integrated structure. The fixing plate (27) overlaps the back of the data identification component (25). The slot (26) is located in the spacing area between the display screen (3) and the host (1) through the data identification component (25).

3. The financial big data analysis device according to claim 2, characterized in that: The slot (26) is provided with a locking block (261), a connecting frame (262), a loading component (263), a positioning block (264), an elastic component (265), and a through cavity (266). The locking block (261) is located at the edge of the connecting frame (262). The inner layer of the connecting frame (262) overlaps with the outer layer of the loading component (263). The positioning block (264) is fixed to the inner wall surface of the loading component (263). The elastic component (265) is fixedly connected to the positioning block (264) and covers the through cavity (266). The through cavity (266) passes through the central area of ​​the loading component (263) and the connecting frame (262). The loading component (263) is fixed to the center of the side of the data identification component (25) through the locking block (261) of the connecting frame (262). The through cavity (266) communicates with the inside of the data identification component (25).

4. A financial big data analysis device according to claim 2, characterized in that: The fixing plate (27) is provided with a bearing (271), a fitting wall (272), a protrusion (273), a vertical rail (274), a slider (275), and a cover (276). The bearing (271) and the fitting wall (272) are an integrated structure. The protrusion (273) is fixed to the center of the inner surface of the bearing (271) through the fitting wall (272). The vertical rail (274) is located on the upper middle part of both sides of the bearing (271). The slider (275) and the vertical rail (274) are adapted to each other. The cover (276) is welded to the slider (275) on both sides and connected to the top of the carrier (271) through the slider (275). The cover (276) covers the top of the overlapping part of the host (1) and the connecting structure (2) through the slider (275). The carrier (271) is fixedly connected to the center of the lower end of the host (1) through the protrusion (273) of the fitting wall (272).

5. A financial big data analysis device according to claim 4, characterized in that: The lower center of the cover (276) is newly provided with a locking body (a1), a thermostat (a2), an air outlet (a3), and a power block (a4). The lower end of the locking body (a1) is fixedly connected to the top center of the thermostat (a2). The surface of the thermostat (a2) and the air outlet (a3) ​​are an integrated structure. The power block (a4) is embedded in the lower center of the thermostat (a2) and electrically connected. The thermostat (a2) is fixed to the lower center of the cover (276) by the locking block (a1). The thermostat (a2) is embedded in the interior of the host (1) by the lower power block (a4) and electrically connected.

6. The financial big data analysis device according to claim 1, characterized in that: The display screen (3) is provided with a main screen (31), a protective frame (32), a pull block (33), an overlapping block (34), a rotating wheel (35), and an electrical connecting shaft (36). The main screen (31) is embedded in the internal area of ​​the protective frame (32) and overlaps with each other. The pull block (33) is welded to the upper center of the protective frame (32). The overlapping block (34) is set on the back of the main screen (31). The rotating wheel (35) is embedded in the lower two sides of the protective frame (32). The electrical connecting shaft (36) passes through the center of the rotating wheel (35) and enters the interior of the main screen (31) for electrical connection. The main screen (31) is embedded in the control terminal (4) through the rotating wheel (35) and the electrical connecting shaft (36) of the protective frame (32) for electrical connection. The rotating wheel (35) is gap-fitted with the interior of the control terminal (4). The overlapping block (34) on the back of the main screen (31) overlaps with the surface of the connecting structure (2).

7. A financial big data analysis device according to claim 6, characterized in that: The wheel (35) is provided with a limiting groove (351), a wheel body (352), a parallel layer (353), a restraining block (354), and a ball bearing (355). The limiting groove (351) passes through the center of the wheel body (352). The upper and lower layers of the wheel body (352) and the parallel layer (353) are an integrated structure. The restraining block (354) falls into the center of the surface edge of the parallel layer (353) and is spaced with the limiting groove (351). The ball bearing (355) is embedded in the center area of ​​the restraining block (354). The limiting groove (351) of the wheel body (352) is penetrated by an electrical connecting shaft (36) and spaced with the wheel body (352). The wheel body (352) is fixedly connected to the lower sides of the protective frame (32) through the lower parallel layer (353).

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