CD-ROM drive test platform

Abstract

The utility model relates to the technical field of CD-ROM testing, in particular to a CD-ROM testing platform which comprises a CD-ROM assembly, the CD-ROM assembly comprises a CD-ROM box and a CD-ROM tray, and a testing assembly is arranged beside the CD-ROM box. The testing assembly comprises a distance sensor arranged on one side of the popping direction of the CD-ROM tray and a supporting piece used for installing the distance sensor, and the distance sensor is flush with the CD-ROM tray; the supporting piece comprises a first supporting plate for mounting the distance sensor and a second supporting plate for mounting the first supporting plate, and the first supporting plate can move on the second supporting plate to adjust the distance between the distance sensor and the CD-ROM drive box; the CD-ROM tray can be electrically popped up or retracted from the CD-ROM box, when the CD-ROM tray pops up to the maximum limit, the distance sensor can detect the popping distance, the CD-ROM tray continuously performs the popping action in a reciprocating manner, and whether the popping distance is changed or not can be detected through the distance sensor, so that whether the service life meets the standard or not can be accurately tested.

Description

Technical Field

[0001] The utility model relates to the technical field of optical drive testing, in particular to an optical drive testing platform. Background Art

[0002] With the continuous development of information technology and the continuous improvement of people's living standards, the total amount of various types of data has become larger and larger. More and more institutions, families or individuals hope to be able to save and continue their important information.

[0003] Optical storage is a means of storing massive data using optical discs as storage media, with advantages such as low energy consumption, convenient portability, and a long data storage period. It is very suitable for storing data with a small access frequency and long-term preservation requirements.

[0004] Among them, the utility model with the patent number CN213958586U discloses an intelligent optical disc data reading and storing device, including an outer frame; an inner chassis is fixed inside the outer frame; an optical disc storage component is rotatably connected inside the inner chassis; each layer of the optical disc storage component consists of multiple optical disc storage boxes arranged in a circular ring structure; a grasping manipulator component is used to unfold the optical disc storage boxes and pick and place optical discs; a manipulator lifting component is used to drive the grasping manipulator component to move up and down; the data reading component includes optical drive boxes stacked layer by layer; the control panel is electrically connected to the control parts of each component.

[0005] Before the optical drive boxes are sold after production, enterprises need to conduct strict tests. Existing test equipment usually installs the optical disc storage boxes on a test tray, and the optical disc storage boxes continuously pop out on the test tray. During testing, the method of visually observing by human eyes is usually used to determine whether the pop-out distance of the optical drive boxes has changed, which is inaccurate. Summary of the Utility Model

[0006] The purpose of the utility model is to provide an optical drive testing platform for the deficiencies of the existing technology.

[0007] To achieve the above purpose, the technical solution of the utility model is as follows:

[0008] An optical drive testing platform includes an optical drive component. The optical drive component includes an optical drive box and an optical drive tray that can be electrically ejected or retracted from the optical drive box. A testing component is arranged beside the optical drive box. The testing component includes a distance sensor arranged on one side of the ejection direction of the optical drive tray and a support member for installing the distance sensor. The distance sensor is flush with the optical drive tray;

[0009] The support member includes a first support plate for installing the distance sensor and a second support plate for installing the first support plate. The first support plate can move on the second support plate to adjust the distance between the distance sensor and the optical drive box.

[0010] Further: The optical drive assembly includes a plurality of the optical drive boxes, and the testing assembly includes a plurality of the distance sensors.

[0011] Further: The optical drive assembly further includes a mounting base for mounting the optical drive boxes. The mounting base is provided with a horizontally arranged mounting groove, and a plurality of optical drive boxes are longitudinally and spacedly mounted in the mounting groove.

[0012] Further: The mounting groove in the mounting base is provided with support pieces for supporting the optical drive boxes. The support pieces are respectively arranged on both sides of the optical drive box, and the support pieces support the two side edges of the bottom surface of the optical drive box.

[0013] Further: An opening is formed in the side wall of the mounting base. The support pieces are integrally formed with the mounting base, and the support pieces are bent inward from the outside of the opening.

[0014] Further: Inner mounting holes are respectively formed on both sides of the optical drive box, and outer mounting holes that cooperate with the inner mounting holes are formed horizontally and penetratingly in the side wall of the mounting base.

[0015] Further: The testing assembly further includes a vertically arranged support column, and a plurality of second support plates are formed on the support column at equal intervals.

[0016] Further: A first connecting long groove is formed along the length direction of the first support plate, and a second connecting long groove that cooperates with the first connecting long groove is formed on the second support plate.

[0017] Further: An induction surface that cooperates with the distance sensor is formed on the optical drive tray.

[0018] Advantages of the present utility model: The optical drive tray can be electrically ejected or retracted from the optical drive box. When the optical drive tray is ejected to the maximum extent, the distance sensor can detect the ejection distance. The optical drive tray continuously makes reciprocating ejection movements, and the distance sensor can detect whether the ejection distance changes, so as to accurately test whether the service life meets the standard;

[0019] The ejection distances of the optical drive trays of different optical drive assemblies are different. The position of the first support plate can be adjusted according to different models, so that the distance sensor can be close to or far from the optical drive box, ensuring that the distance sensor can accurately test the ejection distance of the optical drive tray, and further improving the practicability. Description of the Drawings

[0020] Figure 1 It is a schematic structural diagram of an optical drive testing platform.

[0021] Figure 2 It is a schematic structural diagram of another perspective of the optical drive testing platform.

[0022] Reference numerals include:

[0023] 1 - Optical drive assembly,

[0024] 11 - Optical drive box, 12 - Optical drive tray, 13 - Mounting base, 14 - Mounting slot, 15 - Support piece, 16 - Opening, 17 - Outer mounting hole

[0025] 2 - Test component

[0026] 21 - Support column, 22 - First support plate, 23 - Second support plate, 24 - First connecting long slot

[0027] 25 - Second connecting long slot, 26 - Distance sensor, 27 - Sensing surface Detailed implementation mode

[0028] The present utility model will be described in detail below with reference to the accompanying drawings.

[0029] As shown in Figure 1-2 , an optical drive test platform includes an optical drive component 1. The optical drive component 1 includes an optical drive box 11 and an optical drive tray 12 that can be electrically ejected or retracted from the optical drive box 11. A test component 2 is arranged beside the optical drive box 11. The test component 2 includes a distance sensor 26 arranged on one side of the ejection direction of the optical drive tray 12 and a support for mounting the distance sensor 26. The distance sensor 26 is flush with the optical drive tray 12. The optical drive tray 12 can be electrically ejected or retracted from the optical drive box 11. When the optical drive tray 12 is ejected to the maximum extent, the distance sensor 26 can detect the ejection distance. The optical drive tray 12 continuously reciprocates to perform the ejection action. Through the distance sensor 26, it can be detected whether the ejected distance changes, so as to accurately test whether the service life meets the standard.

[0030] In addition, the support includes a first support plate 22 for mounting the distance sensor 26 and a second support plate 23 for mounting the first support plate 22. The first support plate 22 can move on the second support plate 23 to adjust the distance between the distance sensor 26 and the optical drive box 11. The ejection distances of the optical drive trays 12 of different optical drive components 1 are different. The position of the first support plate 22 can be adjusted according to different models, so that the distance sensor 26 can be close to or far from the optical drive box 11, ensuring that the distance sensor 26 can accurately test the ejection distance of the optical drive tray 12, and further improving the practicability.

[0031] The numbers of both the optical drive box 11 and the distance sensor 26 are multiple. By arranging multiple optical drive boxes 11 and distance sensors 26 on one platform, multiple optical drive boxes 11 and optical drive trays 12 can be tested simultaneously, improving the test efficiency.

[0032] Further, the optical drive assembly 1 further includes a mounting seat 13 for mounting the optical drive box 11. The mounting seat 13 is provided with a horizontally arranged mounting groove 14. A plurality of optical drive boxes 11 are longitudinally and spacedly mounted in the mounting groove 14. The optical drive boxes 11 are fixed in the mounting seat 13 through the mounting groove 14 to position the optical drive boxes 11.

[0033] Further, a support piece 15 for supporting the optical drive box 11 is arranged in the mounting groove 14 of the mounting seat 13. The support pieces 15 are respectively arranged on both sides of the optical drive box 11. The support pieces 15 support the two side edges of the bottom surface of the optical drive box 11. When the support pieces 15 support the optical drive box 11, the optical drive box 11 can be prevented from longitudinally falling, and the support stability of the optical drive box 11 is further improved.

[0034] An opening 16 is formed in the side wall of the mounting seat 13. The support piece 15 is integrally formed with the mounting seat 13, and the support piece 15 is bent inward from the outside of the opening 16. The integrally formed support piece 15 has better stability. When the support piece 15 supports the optical drive box 11, the phenomenon of bolt loosening will not occur in the support piece 15, and the support stability is further improved.

[0035] Further, inner mounting holes are respectively formed on both sides of the optical drive box 11. An outer mounting hole 17 that cooperates with the inner mounting hole is formed through the side wall of the mounting seat 13 transversely. After the optical drive box 11 is inserted into the mounting groove 14, the longitudinal movement of the optical drive box 11 can be restricted through the support piece 15. The inner mounting hole of the optical drive box 11 is coaxially aligned with the outer mounting hole 17 of the mounting seat 13. At this time, a bolt can be inserted for installation and fixation to restrict the lateral movement of the optical drive box 11.

[0036] The test assembly 2 further includes a longitudinally arranged support column 21. A plurality of second support plates 23 are formed on the support column 21 at equal intervals. The second support plates 23 are supported by the support column 21. A first connecting long groove 24 is formed along the length direction of the first support plate 22. The second support plate 23 is formed with a second connecting long groove 25 that cooperates with the first connecting long groove 24. The first support plate 22 can be moved through the cooperation of the first connecting long groove 24 and the second connecting long groove 25, so that the distance sensor 26 mounted on the first support plate 22 can adjust the distance from the optical drive box 11, ensuring that the distance sensor 26 can accurately measure the distance that the optical drive tray 12 pops out, and the practicability is further improved.

[0037] The optical drive tray 12 is formed with a sensing surface 27 that cooperates with the distance sensor 26. When the number of times the optical drive tray 12 repeatedly pops out increases, the optical drive tray 12 may sag. The sensing surface 27 of the optical drive tray 12 is much larger than the sensing area of the distance sensor 26. Therefore, when the outer end of the optical drive tray 12 sags slightly, the sensing surface 27 can still be sensed by the distance sensor 26, ensuring that the distance sensor 26 can accurately measure the distance that the optical drive tray 12 pops out, and the practicability is further improved.

[0038] Preferably, the distance sensor 26 is an externally purchased HG-C105 distance sensor 26.

[0039] In summary, it can be seen that the present utility model has the excellent characteristics described above, enabling it to enhance the effectiveness never achieved in the prior art during use and thus having practicality, becoming a product with extremely high practical value.

[0040] The above content is only a preferred embodiment of the present utility model. For those of ordinary skill in the art, based on the idea of the present utility model, there will be changes in the specific implementation manner and application scope. The content of this specification should not be construed as a limitation to the present utility model.

Claims

1. An optical drive test platform, comprising an optical drive assembly, wherein the optical drive assembly comprises an optical drive box and an optical drive tray that can be electrically ejected or retracted from the optical drive box, characterized in that: A test assembly is arranged beside the optical drive box, and the test assembly includes a distance sensor arranged on one side of the ejection direction of the optical drive tray and a support for installing the distance sensor, and the distance sensor is flush with the optical drive tray; The support member includes a first support plate for mounting the distance sensor and a second support plate for mounting the first support plate, and the first support plate can move on the second support plate to adjust the distance between the distance sensor and the optical drive box.

2. The optical drive test platform according to claim 1, characterized in that: The optical drive assembly includes a plurality of the optical drive boxes, and the test assembly includes a plurality of the distance sensors.

3. The optical drive test platform according to claim 2, characterized in that: The optical drive assembly also includes a mounting seat for mounting an optical drive box. The mounting seat is provided with transversely arranged mounting slots, and a plurality of optical drive boxes are longitudinally spaced and mounted in the mounting slots.

4. The optical drive test platform according to claim 3, characterized in that: The mounting groove in the mounting seat is provided with supporting pieces for supporting the optical drive box. The supporting pieces are arranged on both sides of the optical drive box respectively, and the supporting pieces support the edges on both sides of the bottom surface of the optical drive box.

5. The optical drive test platform according to claim 4, characterized in that: The side wall of the mounting seat is provided with an opening, the support sheet and the mounting seat are integrally formed, and the support sheet is bent from the outside of the opening to the inside.

6. The optical drive test platform according to claim 1, characterized in that: The optical drive box is respectively formed with inner mounting holes on both sides, and the side wall of the mounting seat is horizontally penetrated with outer mounting holes that match the inner mounting holes.

7. The optical drive test platform according to claim 1, characterized in that: The test assembly also includes a longitudinally arranged support column, and a plurality of second support plates are formed on the support column at equal intervals.

8. The optical drive test platform according to claim 7, characterized in that: The first support plate is formed with a first long connecting groove along the length direction, and the second support plate is formed with a second long connecting groove matching with the first long connecting groove.

9. The optical drive test platform according to claim 8, characterized in that: The optical drive tray is formed with a sensing surface that cooperates with the distance sensor.

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