Computer hardware performance detection equipment

Abstract

The invention provides computer hardware performance detection equipment, which relates to the technical field of computer detection and comprises a fixed support and a linkage structure, the bottom of the fixed support is fixedly connected with a supporting angle plate, the top of the fixed support is provided with a linkage structure, the linkage structure comprises two groups of fixed support frames which are symmetrically and fixedly connected to the top of the fixed support, the inner side walls of the fixed support frames are fixedly connected with guide convex strips, and the two groups of fixed support frames are internally provided with a first screw rod and a second screw rod respectively; the assembly support is fixedly mounted on one side of the fixed support frame, through the arrangement of the linkage structure, on one hand, anti-falling performance detection can be carried out on a plurality of computer hardware samples at the same time, the detection speed is greatly increased, and the market appearing rhythm and the production progress of products are guaranteed; and on the other hand, the anti-falling performance data of the computer hardware in various environments can be obtained in one-time detection, so that the data dimension is richer and more comprehensive, and the one-sidedness of a single environment detection result is effectively avoided.

Description

Technical Field

[0001] The present invention relates to the technical field of computer detection, and particularly relates to a computer hardware performance detection device. Background Art

[0002] With the rapid development of computer technology, the performance of computer hardware has been continuously improved, and the types have become increasingly diverse. The so-called computer hardware refers to various physical devices that make up a computer and the physical structure devices used in a computer system. After the computer hardware is manufactured, it needs to undergo multiple performance tests to ensure it is qualified before it can be put into use. Among them, it is necessary to conduct a drop resistance performance test to ensure its hardness, stability, etc. The existing computer hardware performance detection devices can only detect a group of computer hardware. Not only is the detection efficiency low, but they can only simulate one environment for detection, and it is impossible to observe the detection effects of computer hardware in different environments at one time, reducing the practicality of the device. Summary of the Invention

[0003] In view of this, the present invention provides a computer hardware performance detection device. Through the setting of the linkage structure, on the one hand, it can simultaneously conduct drop resistance performance tests on multiple computer hardware samples, changing the traditional mode of detecting one by one, greatly accelerating the detection speed, meeting the demand for rapid detection of computer hardware in large-scale production scenarios, and effectively ensuring the product launch rhythm and production progress. On the other hand, it can simulate different environments at one time, and can obtain the drop resistance performance data of computer hardware in multiple environments in one detection, making the data dimension richer and more comprehensive, effectively avoiding the one-sidedness of the detection results in a single environment, making the detection results more able to reflect the true drop resistance performance of computer hardware in actual complex usage scenarios, and providing a more reliable reference for product quality evaluation; through the setting of the fixing structure, it can fix different sizes of hardware, enabling the detection device to be compatible with more types of computer hardware, enabling them to all conduct drop resistance performance tests, greatly expanding the applicable range of the device, and meeting the diverse detection needs.

[0004] The present invention provides a computer hardware performance detection device, which specifically includes: a fixed support and a linkage structure;

[0005] A support gusset is fixedly connected to the bottom of the fixed support, and a linkage structure is provided on the top of the fixed support. The linkage structure includes:

[0006] Two fixed support frames are symmetrically and fixedly connected to the top of the fixed support. Guide protrusions are fixedly connected to the inner side walls of the fixed support frames, and a first lead screw and a second lead screw are respectively provided in the two fixed support frames;

[0007] The assembly support is fixedly installed on one side of the fixed support frame. A driving motor is installed on the assembly support. The driving motor is fixedly connected to a driving gear through a driving shaft column. A transmission gear is fixedly connected to the outer side of the first lead screw. The transmission gear meshes with the driving gear;

[0008] A driving pulley is fixedly connected to the outer side of the first lead screw. A driven pulley is fixedly connected to the outer side of the second lead screw. The driven pulley is rotationally connected to the driving pulley through a synchronous belt;

[0009] The moving belt plate is arranged in the fixed support frame. A threaded hole is opened in the middle of the moving belt plate. Guide grooves are opened on both sides of the moving belt plate where the threaded hole is located. The guide grooves are fitted and slidably installed on the outer side of the guide rib;

[0010] The scale plate is arranged at the middle of the top of the fixed support frame. A fixed cross bar is fixedly connected to the top of the scale plate.

[0011] In at least some embodiments, a fixing structure is provided at the front end of the moving belt plate. The fixing structure includes a connecting convex block, a connecting frame and a moving groove. The connecting convex block is fixedly connected to the front end of the moving belt plate. The connecting frame is fixedly connected to the front end of the connecting convex block. A moving groove is opened inside the connecting frame.

[0012] In at least some embodiments, an electromagnet is fixedly installed at the middle of the moving groove. Connecting slide rods are fixedly connected to both sides of the electromagnet and the two ends of the moving groove. Springs are arranged on the outer sides of the connecting slide rods.

[0013] In at least some embodiments, moving magnetic plates are arranged on both sides of the electromagnet. Sliding support holes are opened on the moving magnetic plates. The moving magnetic plates are slidably installed on the connecting slide rods through the sliding support holes.

[0014] In at least some embodiments, a through groove is opened at the bottom of the connecting frame. A connecting vertical plate is fixedly connected to the bottom of the moving magnetic plate. The connecting vertical plate passes through the through groove and is fixedly connected to the clamping frame.

[0015] In at least some embodiments, a limiting component is provided at the front end of the fixed support. The limiting component includes a test frame, a square groove and a detection plate. The test frame is fixedly connected to the front end of the fixed support. A square groove is opened at the bottom of the test frame. And a detection plate is arranged inside the test frame.

[0016] In at least some embodiments, a connecting cross bar is fixedly connected to the front end of the test frame. A fixed convex plate is fixedly connected to one end of the connecting cross bar. A limiting groove is opened on the fixed convex plate. A first hinge frame is fixedly connected to the other end of the connecting cross bar. The first hinge frame is hinged to the second hinge frame through a shaft pin.

[0017] In at least some embodiments, one end of the shaft pin is engaged with a pressing knob. The second hinge frame is fixedly connected to the blocking cross plate. The end of the blocking cross plate is fixedly connected with an inserted convex plate, and the inserted convex plate is fitted and clamped in the limiting groove.

[0018] The computer hardware performance detection device provided by the present invention has the following beneficial effects

[0019] 1. By providing a linkage structure in the present invention, starting the driving motor drives the driving shaft column to rotate. The driving shaft column drives the driving gear to rotate. The driving gear meshes with the transmission gear to drive the transmission gear to rotate. The transmission gear drives the first lead screw to rotate. The first lead screw drives the driving pulley to rotate. The driving pulley drives the driven pulley to rotate through the synchronous belt. Then the driven pulley drives the second lead screw to rotate, so that the first lead screw and the second lead screw rotate simultaneously, and rotate and mesh with the threaded holes on the moving belt plate. The moving belt plate is limited and guided on the guiding convex strip through the guiding groove. Then the first lead screw and the second lead screw drive the two groups of moving belt plates to move and adjust, so as to lift the two groups of computer hardware to a certain height. Through different detection plates at the bottom, the anti-drop performance data of the computer hardware in multiple environments can be obtained in one detection, making the data dimension richer and more comprehensive, effectively avoiding the one-sidedness of the detection results in a single environment, and making the detection results more able to reflect the true anti-drop performance of the computer hardware in the actual complex use scenario, providing a more reliable reference for product quality evaluation.

[0020] 2. By providing a fixing structure in the present invention, turning on the electromagnet pushes the moving magnetic plate to move based on the principle of like poles repelling each other. The moving magnetic plate drives the clamping frame to move in the opposite direction through the connecting vertical plate. Then the computer hardware is placed between the clamping frames. At this time, the electromagnet is turned off, and then the moving magnetic plate loses magnetic force. Because the moving magnetic plate squeezes the spring on the connecting slide rod when moving, causing the spring to produce elastic deformation. When the pressure is lost, the spring produces elasticity at this time, thus pushing the moving magnetic plate to move towards each other. The moving magnetic plate drives the clamping frame to clamp and fix the computer hardware, so that it can fix hardware of different sizes, enabling the detection device to be compatible with more types of computer hardware and enabling anti-drop performance detection for all of them, greatly expanding the application range of the device and meeting the diverse detection needs.

[0021] 3. By providing a limiting component in the present invention, different detection plates can be replaced through the setting of the square groove for detection. Through the cooperation of the blocking cross plate, the inserted convex plate and the limiting groove, the detection plate can be limited to prevent movement. Through the setting of the pressing knob, the second hinge frame can be horizontally or vertically pressed and limited, facilitating the replacement of the detection plate. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings of the embodiments will be briefly introduced below.

[0023] The accompanying drawings in the following description only relate to some embodiments of the present invention and do not limit the present invention.

[0024] In the accompanying drawings:

[0025] Figure 1 A schematic diagram of the overall structure according to the present invention is shown;

[0026] Figure 2 A schematic diagram of the linkage structure according to the present invention is shown;

[0027] Figure 3 A schematic diagram of the Figure 2 enlarged structure at A in the present invention is shown;

[0028] Figure 4 A schematic diagram of the moving belt plate structure in the linkage structure according to the present invention is shown;

[0029] Figure 5 A schematic diagram of the fixed structure according to the present invention is shown;

[0030] Figure 6 A schematic diagram of the partial component structure of the fixed structure according to the present invention is shown;

[0031] Figure 7 A schematic diagram of the limit component structure according to the present invention is shown;

[0032] Figure 8 A schematic diagram of the split structure of the limit component according to the present invention is shown;

[0033] List of reference numerals

[0034] 1. Fixed support;

[0035] 101. Support angle plate;

[0036] 2. Linkage structure;

[0037] 201. Fixed support frame; 2011. Guide rib;

[0038] 202. First lead screw; 2021. Second lead screw;

[0039] 203. Assembly support; 2031. Driving motor; 2032. Driving shaft column; 2033. Driving gear; 2034. Transmission gear; 2035. Driving pulley; 2036. Driven pulley;

[0040] 204. Timing belt;

[0041] 205. Moving belt plate; 2051. Threaded hole; 2052. Guide groove;

[0042] 206, Scale plate; 2061, Fixed cross bar;

[0043] 3, Fixed structure;

[0044] 301, Connecting bump; 3011, Connecting frame; 3012, Moving groove; 3013, Through groove;

[0045] 302, Electromagnet; 3021, Connecting slide bar; 3022, Spring;

[0046] 303, Moving magnetic plate; 3031, Sliding support hole; 3032, Connecting vertical plate; 3033, Clamping frame;

[0047] 4, Limit assembly;

[0048] 401, Test frame; 4011, Square groove;

[0049] 402, Detection plate;

[0050] 403, Connecting cross bar; 4031, Fixed convex plate; 4032, Limit groove; 4033, First hinge bracket; 4034, Axle pin; 4035, Compression knob;

[0051] 404, Second hinge bracket; 4041, Blocking cross bar; 4042, Inserted convex plate.

[0052] Embodiment: Please refer to Figures 1 to 8 :

[0053] The present invention provides a computer hardware performance detection device, including: a fixed support 1 and a linkage structure 2;

[0054] The bottom of the fixed support 1 is fixedly connected with a support angle plate 101, and the top of the fixed support 1 is provided with a linkage structure 2, and the linkage structure 2 includes:

[0055] Fixed support frames 201, there are two groups, symmetrically and fixedly connected to the top of the fixed support 1, the inner side wall of the fixed support frame 201 is fixedly connected with a guiding convex strip 2011, and a first lead screw 202 and a second lead screw 2021 are respectively arranged in the two fixed support frames 201;

[0056] An assembly support 203 is fixedly installed on one side of the fixed support frame 201, a driving motor 2031 is installed on the assembly support 203, the driving motor 2031 is fixedly connected with a driving gear 2033 through a driving shaft column 2032, the outer side of the first lead screw 202 is fixedly connected with a transmission gear 2034, and the transmission gear 2034 meshes with the driving gear 2033;

[0057] A driving pulley 2035 is fixedly connected to the outer side of the first lead screw 202. A driven pulley 2036 is fixedly connected to the outer side of the second lead screw 2021. The driven pulley 2036 is rotationally connected to the driving pulley 2035 through a timing belt 204.

[0058] A moving belt plate 205 is arranged in the fixed support frame 201. A threaded hole 2051 is opened in the middle of the moving belt plate 205. Guide grooves 2052 are opened on both sides of the moving belt plate 205 of the threaded hole 2051. The guide grooves 2052 are fitted and slidably installed on the outer side of the guide rib 2011.

[0059] A scale plate 206 is arranged at the middle of the top of the fixed support frame 201. A fixed cross bar 2061 is fixedly connected to the top of the scale plate 206.

[0060] By starting the driving motor 2031 to drive the driving shaft column 2032 to rotate, the driving shaft column 2032 drives the driving gear 2033 to rotate. The driving gear 2033 meshes with the transmission gear 2034 to rotate. The transmission gear 2034 drives the first lead screw 202 to rotate. The first lead screw 202 drives the driving pulley 2035 to rotate. The driving pulley 2035 drives the driven pulley 2036 to rotate through the timing belt 204. Then, the driven pulley 2036 drives the second lead screw 2021 to rotate, so that the first lead screw 202 and the second lead screw 2021 rotate simultaneously, and rotate and mesh with the threaded hole 2051 on the moving belt plate 205. The moving belt plate 205 is limited and guided on the guide rib 2011 through the guide groove 2052. Then, the first lead screw 202 and the second lead screw 2021 drive the two moving belt plates 205 to move and adjust, so as to lift the two sets of computer hardware to a certain height. By setting the scale plate 206, the height of the computer hardware lifted can be accurately controlled.

[0061] Embodiment 2: On the basis of Embodiment 1, as Figure 5 and Figure 6 shown, a fixing structure 3 is arranged at the front end of the moving belt plate 205. The fixing structure 3 includes a connecting convex block 301, a connecting frame 3011 and a moving groove 3012. A connecting convex block 301 is fixedly connected to the front end of the moving belt plate 205. A connecting frame 3011 is fixedly connected to the front end of the connecting convex block 301. A moving groove 3012 is opened inside the connecting frame 3011.

[0062] An electromagnet 302 is fixedly installed at the middle of the moving groove 3012. Connecting slide rods 3021 are fixedly connected to both sides of the electromagnet 302 and the two ends of the moving groove 3012. A spring 3022 is arranged on the outer side of the connecting slide rod 3021.

[0063] On both sides of the electromagnet 302, there are moving magnetic plates 303. The moving magnetic plates 303 are provided with sliding support holes 3031, and the moving magnetic plates 303 are slidably mounted on the connecting sliding rods 3021 through the sliding support holes 3031.

[0064] At the bottom of the connecting frame 3011, there is a through groove 3013. At the bottom of the moving magnetic plate 303, there is a fixed connecting vertical plate 3032. The connecting vertical plate 3032 passes through the through groove 3013 and is fixedly connected to the clamping frame 3033.

[0065] By turning on the electromagnet 302, the moving magnetic plate 303 is pushed to move based on the principle of like poles repelling each other. The moving magnetic plate 303 drives the clamping frame 3033 to move in the opposite direction through the connecting vertical plate 3032. Then, the computer hardware is placed between the clamping frames 3033. At this time, the electromagnet 302 is turned off, and thus the moving magnetic plate 303 loses magnetic force. Because the spring 3022 on the connecting sliding rod 3021 is compressed when the moving magnetic plate 303 moves, the spring 3022 undergoes elastic deformation. When the pressure is lost, the spring 3022 generates elasticity at this time, thereby pushing the moving magnetic plates 303 to move towards each other, and the moving magnetic plates 303 drive the clamping frames 3033 to clamp and fix the computer hardware.

[0066] Embodiment Three: On the basis of Embodiment One and Embodiment Two, as Figure 7 and Figure 8 shown, a limiting component 4 is provided at the front end of the fixed support 1. The limiting component 4 includes a test frame 401, a square groove 4011, and a detection plate 402. The front end of the fixed support 1 is fixedly connected to the test frame 401. The bottom of the test frame 401 is provided with a square groove 4011, and a detection plate 402 is provided inside the test frame 401.

[0067] The front end of the test frame 401 is fixedly connected to a connecting cross plate 403. One end of the connecting cross plate 403 is fixedly connected to a fixed convex plate 4031. A limiting groove 4032 is opened on the fixed convex plate 4031. The other end of the connecting cross plate 403 is fixedly connected to a first hinge frame 4033. The first hinge frame 4033 is hinged to the second hinge frame 404 through a shaft pin 4034.

[0068] One end of the shaft pin 4034 is engaged with a pressing knob 4035. The second hinge frame 404 is fixedly connected to a blocking cross plate 4041. The end of the blocking cross plate 4041 is fixedly connected to an insertion convex plate 4042. The insertion convex plate 4042 is fitted and clamped in the limiting groove 4032.

[0069] Through the setting of the square groove 4011, different detection plates 402 can be replaced for detection. Through the cooperation of the blocking cross plate 4041, the inserted convex plate 4042 and the limiting groove 4032, the detection plate 402 can be limited to prevent movement. Through the setting of the pressing knob 4035, the second hinge frame 404 can be horizontally or vertically pressed and limited, facilitating the replacement of the detection plate 402.

[0070] Specific usage and function of this embodiment: In the present invention, the detection board 402 to be detected needs to be placed in the test frame 401, and then the blocking cross plate 4041 is rotated so that the insertion convex plate 4042 is clamped into the limit groove 4032, thereby limiting the detection board 402 to prevent it from moving. Then, the pressing knob 4035 is rotated to press and fix the second hinge frame 404 to prevent the second hinge frame 404 from driving the blocking cross plate 4041 to rotate. Then, by turning on the electromagnet 302, the moving magnetic plate 303 is pushed to move based on the principle of like poles repelling each other. The moving magnetic plate 303 drives the clamping frame 3033 to move in the opposite direction through the connecting vertical plate 3032. Then, the computer hardware is placed between the clamping frames 3033. At this time, the electromagnet 302 is turned off, and thus the moving magnetic plate 303 loses its magnetic force. Because the moving magnetic plate 303 squeezes the spring 3022 on the connecting slide rod 3021 when moving, causing the spring 3022 to produce elastic deformation. When the pressure is removed, the spring 3022 generates elasticity at this time, thereby pushing the moving magnetic plate 303 to move towards each other. The moving magnetic plate 303 drives the clamping frame 3033 to clamp and fix the computer hardware, enabling it to fix hardware of different sizes, making the detection device compatible with more types of computer hardware, enabling all of them to perform drop resistance performance detection, greatly expanding the applicable range of the device, meeting diverse detection requirements. Finally, by starting the driving motor 2031 to drive the driving shaft column 2032 to rotate, the driving shaft column 2032 drives the driving gear 2033 to rotate, the driving gear 2033 meshes with the transmission gear 2034 to rotate, the transmission gear 2034 drives the first lead screw 202 to rotate, the first lead screw 202 drives the driving pulley 2035 to rotate, the driving pulley 2035 drives the driven pulley 2036 to rotate through the synchronous belt 204. Then, the driven pulley 2036 drives the second lead screw 2021 to rotate, enabling the first lead screw 202 and the second lead screw 2021 to rotate simultaneously, and they rotate and mesh with the threaded holes 2051 on the moving belt plate 205. The moving belt plate 205 is limited and guided on the guiding convex strip 2011 through the guiding groove 2052. Then, the first lead screw 202 and the second lead screw 2021 drive the two groups of moving belt plates 205 to move and adjust, raising the two groups of computer hardware to a certain height, enabling the simultaneous drop resistance performance detection of multiple computer hardware samples, changing the traditional mode of detecting one by one, greatly accelerating the detection speed, meeting the demand for rapid detection of computer hardware in large-scale production scenarios, effectively ensuring the product launch rhythm and production progress. Then, the electromagnet 302 is turned on again, and the moving magnetic plate 303 is pushed to move based on the principle of like poles repelling each other. The moving magnetic plate 303 drives the clamping frame 3033 to move in the opposite direction through the connecting vertical plate 3032, causing the computer hardware to freely fall onto different detection boards 402, and thus the drop resistance performance data of the computer hardware in multiple environments can be obtained in one detection, making the data dimension richer and more comprehensive, effectively avoiding the one-sidedness of the detection results in a single environment.Make the detection results better reflect the true drop resistance of computer hardware in actual complex usage scenarios, providing a more reliable reference for product quality assessment.

Claims

1. A computer hardware performance detection device, comprising: Fixed support (1) and linkage structure (2); The bottom of the fixed support (1) is fixedly connected with a support angle plate (101), and a linkage structure (2) is arranged on the top of the fixed support (1). It is characterized in that the linkage structure (2) includes: Fixed support frames (201), there are two groups, symmetrically and fixedly connected to the top of the fixed support (1). Guide ridges (2011) are fixedly connected to the inner side walls of the fixed support frames (201), and a first lead screw (202) and a second lead screw (2021) are respectively arranged in the two groups of fixed support frames (201); Assembly support (203), fixedly installed on one side of the fixed support frame (201). A driving motor (2031) is installed on the assembly support (203). The driving motor (2031) is fixedly connected with a driving gear (2033) through a driving shaft column (2032). A transmission gear (2034) is fixedly connected to the outer side of the first lead screw (202), and the transmission gear (2034) meshes with the driving gear (2033); A driving belt pulley (2035) is fixedly connected to the outer side of the first lead screw (202), a driven belt pulley (2036) is fixedly connected to the outer side of the second lead screw (2021), and the driven belt pulley (2036) is rotationally connected with the driving belt pulley (2035) through a synchronous belt (204); Moving belt plate (205), arranged in the fixed support frame (201). A threaded hole (2051) is opened in the middle of the moving belt plate (205), and guide grooves (2052) are opened on both sides of the moving belt plate (205) of the threaded hole (2051). The guide grooves (2052) are fitted and slidably installed on the outer side of the guide ridges (2011); Scale plate (206), arranged at the middle of the top of the fixed support frame (201). A fixed cross bar (2061) is fixedly connected to the top of the scale plate (206).

2. The computer hardware performance detection device according to claim 1, characterized in that: A fixed structure (3) is arranged at the front end of the moving belt plate (205). The fixed structure (3) includes a connecting convex block (301), a connecting frame (3011) and a moving groove (3012). The front end of the moving belt plate (205) is fixedly connected with the connecting convex block (301), the front end of the connecting convex block (301) is fixedly connected with the connecting frame (3011), and a moving groove (3012) is opened inside the connecting frame (3011).

3. The computer hardware performance detection device according to claim 2, characterized in that: An electromagnet (302) is fixedly installed at the middle of the moving groove (3012). Connecting slide rods (3021) are fixedly connected between both sides of the electromagnet (302) and both ends of the moving groove (3012). Springs (3022) are arranged on the outer sides of the connecting slide rods (3021).

4. A computer hardware performance detection device according to claim 3, characterized in that: Moving magnetic plates (303) are arranged on both sides of the electromagnet (302). Sliding support holes (3031) are opened on the moving magnetic plates (303). The moving magnetic plates (303) are slidably installed on the connecting slide rods (3021) through the sliding support holes (3031).

5. A computer hardware performance detection device according to claim 2, characterized in that: A through groove (3013) is opened at the bottom of the connecting frame (3011). A connecting vertical plate (3032) is fixedly connected to the bottom of the moving magnetic plate (303). The connecting vertical plate (3032) passes through the through groove (3013) and is fixedly connected with a clamping frame (3033).

6. A computer hardware performance detection device according to claim 1, characterized in that: A limiting component (4) is provided at the front end of the fixed support (1). The limiting component (4) includes a test frame (401), a square groove (4011), and a detection plate (402). The front end of the fixed support (1) is fixedly connected to the test frame (401). A square groove (4011) is formed at the bottom of the test frame (401), and a detection plate (402) is arranged inside the test frame (401).

7. A computer hardware performance detection device according to claim 6, characterized in that: A connecting cross plate (403) is fixedly connected to the front end of the test frame (401). One end of the connecting cross plate (403) is fixedly connected to a fixed convex plate (4031). A limiting groove (4032) is formed on the fixed convex plate (4031). The other end of the connecting cross plate (403) is fixedly connected to a first hinge frame (4033). The first hinge frame (4033) is hinged to a second hinge frame (404) through a pin (4034).

8. A computer hardware performance detection device according to claim 7, characterized in that: One end of the pin (4034) is engaged with a pressing knob (4035). The second hinge frame (404) is fixedly connected to a blocking cross plate (4041). An insertion convex plate (4042) is fixedly connected to the end of the blocking cross plate (4041). The insertion convex plate (4042) is fitted and clamped in the limiting groove (4032).

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