Optical communication measuring head with adjustable end face measuring instrument

Abstract

The utility model discloses an optical communication measuring head with an adjustable end face measuring instrument, which relates to the technical field of optical communication measuring heads and comprises an X-axis adjusting arm, and the top end of the back of one side of the X-axis adjusting arm is fixedly connected with a fixed connecting plate. Fixed connection and installation are achieved through a fixed connection plate arranged on an X-axis adjusting arm, the effect of an X-axis driving motor is controlled through a main controller, an X-axis driving threaded rod is driven to rotate, and the X-axis sliding block is driven through the X-axis driving threaded rod to achieve position sliding adjustment of an X axis; the main controller controls the Z-axis driving motor to drive the Z-axis driving threaded rod to achieve rotation operation and drive the Z-axis sliding block to achieve sliding adjustment of the Z axis, the main controller controls the Y-axis driving motor to start operation, and the Y-axis driving threaded rod rotates to drive the Y-axis sliding block to achieve transmission sliding operation. And the Y-axis sliding block assists in sliding adjustment operation on the auxiliary sliding rail, so that the position adjustment of the Y axis is realized, and the use accuracy of the optical communication measuring head is improved.

Description

Technical Field

[0001] This utility model relates to the field of optical communication probe technology, and in particular to an optical communication probe with an adjustable end face measuring instrument. Background Technology

[0002] End face gauges are used for positioning the end face of workpieces during grinding and for measuring whether the end face has been machined to the corresponding dimensions. They are used very frequently and are widely adopted. Conventional end face gauges have fixed probes that cannot be adjusted in angle, leading to production limitations and a relatively limited range of workpieces produced (for example, when grinding gear shafts, the probe needs to extend into the tooth groove; if the angle is incorrect, it cannot insert, or different gears have different tooth groove spacings, and a large probe cannot fit, requiring a smaller probe; generally, larger probes are more sensitive, so larger probes are usually selected, and smaller probes are only used when the size is insufficient). Furthermore, the cylinder and slide rail are mounted back-to-back, making the maintenance and lubrication of the slide rail very troublesome and difficult to operate. Therefore, we designed an optical communication probe with an adjustable end face gauge. Utility Model Content

[0003] The purpose of this invention is to provide an optical communication probe with an adjustable end face gauge.

[0004] To solve the above technical problems, this utility model provides the following technical solution: an optical communication probe with an adjustable end face measuring instrument, comprising an X-axis adjusting arm, a fixed connecting plate fixedly connected to the top of the back side of one side of the X-axis adjusting arm, a fixed connecting hole formed on one side surface of the fixed connecting plate, an X-axis sliding chamber formed inside one side of the X-axis adjusting arm, an X-axis drive threaded rod movably installed inside the X-axis sliding chamber, an X-axis sliding block movably connected to one side surface of the X-axis drive threaded rod, an X-axis drive motor fixedly installed on the outer wall of the top of one side of the X-axis adjusting arm, a Z-axis adjusting arm fixedly connected to one side of the X-axis sliding block, a Z-axis drive motor fixedly connected to the top of one side of the Z-axis adjusting arm, a main controller fixedly installed at the bottom side of the Z-axis adjusting arm, a data display fixedly installed at the top front of the main controller, and a control setting keyboard provided at the bottom front of the main controller.

[0005] Preferably, the X-axis drive motor and the X-axis drive threaded rod are connected by a drive connection, the X-axis drive threaded rod passes through the interior of the X-axis sliding block, the X-axis drive threaded rod and the X-axis sliding block are connected by a threaded drive connection, the X-axis sliding block is located inside the X-axis adjusting arm, and the X-axis sliding block and the X-axis adjusting arm are connected by a sliding connection.

[0006] Preferably, a Z-axis drive threaded rod is movably mounted inside one side of the Z-axis adjusting arm, a Z-axis sliding block is movably mounted on one side surface of the Z-axis drive threaded rod, and a Y-axis adjusting arm is fixedly connected to one side of the Z-axis sliding block.

[0007] Preferably, the Y-axis adjusting arm has a Y-axis sliding chamber inside, an auxiliary sliding rail is fixedly connected to one side of the inner wall of the Y-axis sliding chamber, a Y-axis sliding block is movably installed on one side of the auxiliary sliding rail, a Y-axis drive threaded rod is movably installed inside the Y-axis sliding block, and a Y-axis drive motor is fixedly installed on the outer wall of the top of one side of the Y-axis adjusting arm.

[0008] Preferably, a mounting connecting post is fixedly connected to one bottom end of the Y-axis sliding block, a mounting plug is detachably mounted to one bottom end of the mounting connecting post, a probe is fixedly connected to one bottom end of the mounting plug, an electrical connection pin hole is opened on the surface of one bottom end of the mounting connecting post, a connecting plate is fixedly connected to the top side of the mounting plug, and a plug is fixedly connected to one top side of the connecting plate.

[0009] Preferably, the Z-axis drive motor and the Z-axis drive threaded rod are connected by a drive connection, the Y-axis drive motor and the Y-axis drive threaded rod are connected by a drive connection, the Y-axis sliding block is located inside the Y-axis sliding chamber, the Y-axis adjusting arm and the Y-axis sliding block are connected by a sliding connection, the Y-axis drive threaded rod and the Y-axis sliding block are connected by a threaded drive connection, the positions of the power connection pin hole and the connector are in one-to-one correspondence, and the connection between the power connection pin hole and the connector is a power control connection.

[0010] Compared with related technologies, the optical communication probe with adjustable end face measuring instrument provided by this utility model has the following advantages:

[0011] 1. This utility model provides an optical communication probe with an adjustable end face measuring instrument. It achieves fixed connection and installation by setting a fixed connecting plate on the X-axis adjusting arm. The main controller controls the X-axis drive motor, which drives the X-axis drive threaded rod to rotate. The X-axis drive threaded rod drives the X-axis sliding block to achieve X-axis position sliding adjustment. The main controller controls the Z-axis drive motor, which drives the Z-axis drive threaded rod to rotate, driving the Z-axis sliding block to achieve Z-axis sliding adjustment. The main controller controls the Y-axis drive motor, which drives the Y-axis drive threaded rod to rotate, driving the Y-axis sliding block to achieve transmission sliding operation. The Y-axis sliding block assists in sliding adjustment on the auxiliary sliding rail, achieving Y-axis position adjustment and improving the accuracy of the optical communication probe.

[0012] 2. This utility model provides an optical communication probe with an adjustable end face measuring instrument. By setting a connector on the mounting plug, it can be directly plugged into the inside of the power connection pin hole to complete the connection between the mounting plug and the mounting connection post. This facilitates the replacement of the mounting plug and the probe. At the same time, when the probe is not in use, it can be disassembled for cleaning, maintenance, and storage, which facilitates its future use and improves the service life of the probe. Attached Figure Description

[0013] Figure 1 This is a three-dimensional structural diagram of the present invention;

[0014] Figure 2 This is a schematic diagram of the overall side top view of the device of this utility model;

[0015] Figure 3 This is a schematic diagram of the overall side view of the device of this utility model;

[0016] Figure 4 This is a split bottom view structural diagram of the mounting connection column and mounting connector of this utility model.

[0017] The diagram labels are as follows: 1. X-axis adjusting arm; 2. Fixed connecting plate; 3. Fixed connecting hole; 4. X-axis sliding chamber; 5. X-axis drive threaded rod; 6. X-axis sliding block; 7. X-axis drive motor; 8. Z-axis adjusting arm; 9. Z-axis drive motor; 10. Main controller; 11. Data display; 12. Control setting keyboard; 13. Z-axis drive threaded rod; 14. Z-axis sliding block; 15. Y-axis adjusting arm; 16. Y-axis sliding chamber; 17. Auxiliary sliding rail; 18. Y-axis sliding block; 19. Y-axis drive threaded rod; 20. Y-axis drive motor; 21. Mounting connecting column; 22. Mounting connector; 23. Probe head; 24. Power connection pin hole; 25. Connecting plate; 26. Connector. Detailed Implementation

[0018] Example 1:

[0019] Please see Figure 1-4This utility model provides a technical solution: an optical communication probe with an adjustable end face measuring instrument, including an X-axis adjusting arm 1, a fixed connecting plate 2 fixedly connected to the top of the back side of one side of the X-axis adjusting arm 1, a fixed connecting hole 3 opened on one side surface of the fixed connecting plate 2, an X-axis sliding chamber 4 opened inside one side of the X-axis adjusting arm 1, an X-axis drive threaded rod 5 movably installed inside the X-axis sliding chamber 4, an X-axis sliding block 6 movably connected to one side surface of the X-axis drive threaded rod 5, an X-axis drive motor 7 fixedly installed on the outer wall of the top of one side of the X-axis adjusting arm 1, a Z-axis adjusting arm 8 fixedly connected to one side of the X-axis sliding block 6, a Z-axis drive motor 9 fixedly connected to the top of one side of the Z-axis adjusting arm 8, a main controller 10 fixedly installed at the bottom side of the Z-axis adjusting arm 8, a data display 11 fixedly installed at the top front of the main controller 10, a control setting keyboard 12 provided at the bottom front of the main controller 10, and the X-axis drive motor 7 and X-axis... The drive threaded rod 5 is connected by a drive connection. The X-axis drive threaded rod 5 passes through the interior of the X-axis sliding block 6. The X-axis drive threaded rod 5 and the X-axis sliding block 6 are connected by a threaded drive connection. The X-axis sliding block 6 is located inside the X-axis adjusting arm 1. The X-axis sliding block 6 and the X-axis adjusting arm 1 are connected by a sliding connection. The Z-axis drive threaded rod 13 is movably installed inside one side of the Z-axis adjusting arm 8. The Z-axis sliding block 14 is movably installed on the surface of one side of the Z-axis drive threaded rod 13. The Y-axis adjusting arm 15 is fixedly connected to one side of the Z-axis sliding block 14. The Y-axis adjusting arm 15 has a Y-axis sliding chamber 16 inside. The auxiliary sliding rail 17 is fixedly connected to the inner wall of one side of the Y-axis sliding chamber 16. The Y-axis sliding block 18 is movably installed on one side of the auxiliary sliding rail 17. The Y-axis drive threaded rod 19 is movably installed inside the Y-axis sliding block 18. The Y-axis drive motor 20 is fixedly installed on the outer wall of the top of one side of the Y-axis adjusting arm 15.

[0020] In the implementation scheme, a fixed connection plate 2 is set on the X-axis adjusting arm 1 to achieve fixed connection and installation. The X-axis drive motor 7 is controlled by the main controller 10 to drive the rotation of the X-axis drive threaded rod 5. The X-axis drive threaded rod 5 drives the X-axis sliding block 6 to achieve sliding adjustment of the X-axis position. The Z-axis drive motor 9 is controlled by the main controller 10 to drive the Z-axis drive threaded rod 13 to achieve rotation and drive the Z-axis sliding block 14 to achieve sliding adjustment of the Z-axis. The Y-axis drive motor 20 is controlled by the main controller 10 to start. The rotation of the Y-axis drive threaded rod 19 drives the Y-axis sliding block 18 to achieve sliding operation. The Y-axis sliding block 18 assists in sliding adjustment on the auxiliary sliding rail 17 to achieve Y-axis position adjustment and improve the accuracy of the optical communication probe.

[0021] Example 2:

[0022] Please see Figure 1-4This utility model provides a technical solution: an optical communication probe with an adjustable end face measuring instrument, comprising a mounting connecting post 21 fixedly connected to one bottom end of a Y-axis sliding block 18, a mounting connector 22 detachably mounted to one bottom end of the mounting connecting post 21, a probe 23 fixedly connected to one bottom end of the mounting connector 22, a power connection pin hole 24 formed on the surface of one bottom end of the mounting connecting post 21, a connecting plate 25 fixedly connected to the top side of the mounting connector 22, and a connector 26 fixedly connected to one top side of the connecting plate 25. The Z-axis drive motor 9 and the Z-axis drive threaded rod 13 are connected by a drive connection. The Y-axis drive motor 20 and the Y-axis drive threaded rod 19 are also connected by a drive connection. The Y-axis sliding block 18 is located inside the Y-axis sliding chamber 16. The Y-axis adjusting arm 15 and the Y-axis sliding block 18 are connected by a sliding connection. The Y-axis drive threaded rod 19 and the Y-axis sliding block 18 are connected by a threaded drive connection. The positions of the power connection pin hole 24 and the connector 26 correspond one-to-one. The connection between the power connection pin hole 24 and the connector 26 is a power control connection.

[0023] In the implementation plan, the connector 26 on the mounting connector 22 is directly plugged into the power connection pin hole 24 to complete the connection between the mounting connector 22 and the mounting connection post 21. This facilitates the replacement of the mounting connector 22 and the probe 23. At the same time, when the probe 23 is not in use, it can be disassembled for cleaning, maintenance, and storage, which facilitates its reuse and extends its service life.

[0024] Working principle:

[0025] A fixed connection is achieved by setting a fixed connecting plate 2 on the X-axis adjusting arm 1. The X-axis drive motor 7 is controlled by the main controller 10 to drive the rotation of the X-axis drive threaded rod 5. The X-axis drive threaded rod 5 drives the X-axis sliding block 6 to achieve the sliding adjustment of the X-axis position. The Z-axis drive motor 9 is controlled by the main controller 10 to drive the Z-axis drive threaded rod 13 to achieve the rotation operation. The Z-axis sliding block 14 is driven to achieve the sliding adjustment of the Z-axis. The Y-axis drive motor 20 is controlled by the main controller 10 to start the operation. The rotation of the Y-axis drive threaded rod 19 drives the Y-axis sliding block 18 to achieve the transmission sliding operation. The Y-axis sliding block 18 assists in the sliding adjustment operation on the auxiliary sliding rail 17 to achieve the position adjustment of the Y-axis and improve the accuracy of the optical communication probe.

[0026] By setting the connector 26 on the mounting connector 22 to be directly inserted into the power connection pin hole 24, the connection between the mounting connector 22 and the mounting connection post 21 is completed, which facilitates the replacement of the mounting connector 22 and the probe 23. At the same time, when the probe 23 is not in use, it can be removed for cleaning, maintenance and storage, which facilitates its reuse and extends its service life.

Claims

1. An optical communication measuring head with adjustable end face gauge, comprising an X-axis adjusting arm (1), one side of the back end of the X-axis adjusting arm (1) is fixedly connected with a fixed connecting plate (2), characterized in that: The side surface of the fixed connecting plate (2) is provided with a fixed connecting hole (3), one side of the X-axis adjusting arm (1) is internally provided with an X-axis sliding cabin (4), the inside of the X-axis sliding cabin (4) is movably provided with an X-axis driving threaded rod (5), one side surface of the X-axis driving threaded rod (5) is movably connected with an X-axis sliding block (6), one side top end outer wall of the X-axis adjusting arm (1) is fixedly provided with an X-axis driving motor (7), one side of the X-axis sliding block (6) is fixedly connected with a Z-axis adjusting arm (8), one side top end of the Z-axis adjusting arm (8) is fixedly connected with a Z-axis driving motor (9), the side bottom end of the Z-axis adjusting arm (8) is fixedly provided with a main control unit (10), the front top end of the main control unit (10) is fixedly provided with a data display (11), and the front bottom end of the main control unit (10) is provided with a control setting keyboard (12).

2. An optical communication probe head with an adjustable end face gauge according to claim 1, characterized in that The connection relationship between the X-axis driving motor (7) and the X-axis driving threaded rod (5) is driving connection, the X-axis driving threaded rod (5) penetrates the inside of the X-axis sliding block (6), the connection relationship between the X-axis driving threaded rod (5) and the X-axis sliding block (6) is screw thread driving connection, the X-axis sliding block (6) is located in the inside of the X-axis adjusting arm (1), and the connection relationship between the X-axis sliding block (6) and the X-axis adjusting arm (1) is sliding connection.

3. An optical communication probe head with an adjustable end face gauge according to claim 1, characterized in that, The side of the Z-axis adjusting arm (8) is movably provided with a Z-axis driving threaded rod (13), one side surface of the Z-axis driving threaded rod (13) is movably provided with a Z-axis sliding block (14), and one side of the Z-axis sliding block (14) is fixedly connected with a Y-axis adjusting arm (15).

4. An optical communications probe head with an adjustable end face gauge according to claim 3, characterized in that The inside of the Y-axis adjusting arm (15) is provided with a Y-axis sliding cabin (16), one side inner wall of the Y-axis sliding cabin (16) is fixedly connected with an auxiliary sliding rail (17), one side of the auxiliary sliding rail (17) is movably provided with a Y-axis sliding block (18), the inside of the Y-axis sliding block (18) is movably provided with a Y-axis driving threaded rod (19), and one side top end outer wall of the Y-axis adjusting arm (15) is fixedly provided with a Y-axis driving motor (20).

5. An optical communications probe with an adjustable endface gauge according to claim 4, wherein, One side bottom end of the Y-axis sliding block (18) is fixedly connected with a mounting connecting column (21), one side bottom end of the mounting connecting column (21) is detachably provided with a mounting plug connector (22), one side bottom end of the mounting plug connector (22) is fixedly connected with a detection head (23), one side bottom end surface of the mounting connecting column (21) is provided with a power connection bolt hole (24), the side top end of the mounting plug connector (22) is fixedly connected with a connecting disc (25), one side top end of the connecting disc (25) is fixedly connected with a plug connector (26).

6. An optical communications probe with an adjustable endface gauge according to claim 5, wherein, The connecting relationship between the Z-axis driving motor (9) and the Z-axis driving threaded rod (13) is driving connection, the connecting relationship between the Y-axis driving motor (20) and the Y-axis driving threaded rod (19) is driving connection, the Y-axis sliding block (18) is located in the inside of the Y-axis sliding cabin (16), the connecting relationship between the Y-axis adjusting arm (15) and the Y-axis sliding block (18) is sliding connection, the connecting relationship between the Y-axis driving threaded rod (19) and the Y-axis sliding block (18) is threaded driving connection, the position of the power connection plug hole (24) and the plug (26) is one-to-one correspondence, and the connecting relationship between the power connection plug hole (24) and the plug (26) is power control connection.

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