Hexagonal surface guide induction structure

Abstract

The utility model relates to the technical field of probe adjustment of detection equipment, in particular to a hexagonal surface guide induction structure. Comprising a fixing block and an auxiliary device, the auxiliary device comprises an inner hexagonal hole guide sleeve, an outer hexagonal rod, an induction probe, a fixing ring and a stabilizing assembly, the inner hexagonal hole guide sleeve is fixedly connected with the fixing block, the outer hexagonal rod is slidably connected with the inner hexagonal hole guide sleeve, and the induction probe is slidably connected with the outer hexagonal rod and penetrates through the outer hexagonal rod; the sensing probe is locked through a screw on the fixing ring, front and back movement of the sensing probe is achieved through the outer hexagonal rod, the inner hexagonal hole guide sleeve is used for sliding guide of the outer hexagonal rod, the outer hexagonal contact surface of the outer hexagonal rod is large, the guide stability can be improved, and the stability of the sensing probe is improved. The stabilizing assembly is used for further improving the sliding stability of the outer hexagonal rod, and then the problem that a traditional sensing probe displacement device is unstable in guiding and not beneficial to stable work of a sensing probe can be solved.

Description

Technical Field

[0001] The utility model relates to the technical field of probe adjustment of detection equipment, in particular to a hexagonal surface guide sensing structure. Background Art

[0002] Auto parts are a general term for various components that ensure the normal operation of the car. During the processing and manufacturing of auto parts, a large number of testing equipment will be used to test parameters such as dimensional accuracy in order to produce parts that meet the requirements and ensure the normal operation of the car.

[0003] A sensing probe, also known as a sensor, is a device used to detect, measure, and collect data. It interacts with the object or environment being detected, converting the desired information into an electrical signal or other form that can be read or processed. The probe converts the detected signal into a form that can be read or processed. This includes conversion processes such as converting physical quantities into electrical signals and converting chemical reactions into optical signals. Common conversion methods include electromagnetic induction, the piezoelectric effect, and the photoelectric effect.

[0004] When the induction probe is working, it sometimes needs to move back and forth. Traditional displacement devices have unstable guidance, which is not conducive to the stable operation of the induction probe. Utility Model Content

[0005] The purpose of the utility model is to provide a hexagonal surface guide sensing structure to solve the problem that the conventional sensing probe displacement device has unstable guidance, which is not conducive to the stable operation of the sensing probe.

[0006] To achieve the above-mentioned purpose, the utility model provides a hexagonal surface guide sensing structure, including a fixed block and an auxiliary device;

[0007] The auxiliary device includes an inner hexagonal hole guide sleeve, an outer hexagonal rod, an induction probe, a fixing ring and a stabilizing assembly. The inner hexagonal hole guide sleeve is fixedly connected to the fixing block and is located on both sides of the fixing block. The outer hexagonal rod is slidably connected to the inner hexagonal hole guide sleeve and is located on one side of the inner hexagonal hole guide sleeve. The induction probe is slidably connected to the outer hexagonal rod, passes through the outer hexagonal rod, and is located on the outer hexagonal rod. The fixing ring is detachably connected to the outer hexagonal rod and is sleeved on the front side of the outer hexagonal rod. The stabilizing assembly is arranged in the bottom cavity of the fixing block.

[0008] Among them, a T-shaped slot and a threaded reference hole are provided on the top of the fixed block. The T-shaped slot passes through the fixed block and is located on the top of the fixed block; the threaded reference hole passes through the fixed block and is located on both sides of the fixed block.

[0009] Wherein, a limiting groove is provided on the outer hexagonal rod.

[0010] Wherein, the stabilizing assembly includes a slider and a pad. The slider is slidably connected to the fixed block and the hexagonal rod respectively and is located in the bottom cavity of the fixed block. The pad is arranged between the slider and the fixed block.

[0011] Wherein, the inner hexagonal hole surface of the inner hexagonal hole guide sleeve and the outer surface of the outer hexagonal rod are respectively provided with a wear-resistant layer.

[0012] The utility model discloses a hexagonal surface guide sensing structure, in which the inner hexagonal hole guide sleeve is pressed onto both sides of the fixed block and then tightened and fixed by bolts, the outer hexagonal rod can slide in the inner hexagonal hole guide sleeve, the sensing probe is slidably connected to the outer hexagonal rod and passes through the outer hexagonal rod, the fixing ring is detachably connected to the outer hexagonal rod and is sleeved on the front side of the outer hexagonal rod, and the stabilizing component is arranged in the bottom cavity of the fixed block. The present application locks the sensing probe by the screws on the fixing ring, and the forward and backward movement of the sensing probe is realized by the outer hexagonal rod. The inner hexagonal hole guide sleeve is used for sliding guidance of the outer hexagonal rod, the outer hexagonal contact surface of the outer hexagonal rod is larger, which can improve the guiding stability, and the stabilizing component is used to further improve the sliding stability of the outer hexagonal rod, thereby solving the problem that the traditional sensing probe displacement device has unstable guiding, which is not conducive to the stable operation of the sensing probe. BRIEF DESCRIPTION OF THE DRAWINGS

[0013] In order to more clearly illustrate the embodiments of the present application or the technical solutions in the prior art, the following briefly introduces the drawings required for use in the embodiments or the description of the prior art.

[0014] Figure 1 It is a schematic diagram of the overall structure of the hexagonal surface guide induction structure of the present utility model.

[0015] Figure 2 It is a schematic diagram of the setting position of the slider of the utility model.

[0016] Figure 3 It is a structural schematic diagram of the outer hexagonal rod of the utility model.

[0017] In the figure: 101-fixed block, 102-inner hexagonal hole guide sleeve, 103-external hexagonal rod, 104-sensing probe, 105-fixed ring, 106-T-shaped slide groove, 107-threaded reference hole, 108-limiting groove, 109-slider, 110-pad. DETAILED DESCRIPTION

[0018] The embodiments of the present invention are described in detail below, and examples of the embodiments are shown in the accompanying drawings. The embodiments described below with reference to the accompanying drawings are exemplary and are intended to be used to explain the present invention, but should not be understood as limiting the present invention.

[0019] like Figures 1 to 3 As shown, Figure 1 This is the overall structural diagram of the hexagonal surface guide induction structure. Figure 2 109 is a schematic diagram of the setting position of the slider 109. Figure 3 The figure is a schematic diagram of the structure of an external hexagonal rod 103. The present invention provides a hexagonal surface guide sensing structure comprising a fixed block 101 and an auxiliary device, the auxiliary device comprising a hexagonal inner hole guide sleeve 102, an external hexagonal rod 103, a sensing probe 104, a fixed ring 105, and a stabilizing assembly, the stabilizing assembly comprising a slider 109 and a spacer 110. This solution can address the problem of unstable guidance in conventional displacement devices for the sensing probe 104, which hinders its stable operation. It is understood that this solution can ensure very stable sensing of the sensing probe 104 during use, reducing downtime caused by unstable sensing.

[0020] In this embodiment, the fixing block 101 is used to achieve fixed installation of the entire structure.

[0021] Among them, the inner hexagonal hole guide sleeve 102 is fixedly connected to the fixed block 101 and is located on both sides of the fixed block 101. The outer hexagonal rod 103 is slidably connected to the inner hexagonal hole guide sleeve 102 and is located on one side of the inner hexagonal hole guide sleeve 102. The sensing probe 104 is slidably connected to the outer hexagonal rod 103, passes through the outer hexagonal rod 103, and is located on the outer hexagonal rod 103. The fixing ring 105 is detachably connected to the outer hexagonal rod 103 and is sleeved on the front side of the outer hexagonal rod 103. The stabilizing component is arranged in the bottom cavity of the fixed block 101. The fixing block 101 is provided with an installation cavity at the bottom, and fixing holes are provided on both side walls of the installation cavity, so that the inner hexagonal hole guide sleeve 102 can be pressed into the interior. The top end surfaces of the two inner hexagonal hole guide sleeves 102 are provided with threaded holes, which are convenient for tightening and fixing to the fixing block 101 by bolts. At the same time, the inner hexagonal hole guide sleeve 102 can be prevented from rotating after installation. A through hole is provided inside the outer hexagonal rod 103 to facilitate the installation of the sensing probe 104. The sensing probe 104 is L-shaped. Two matching through holes are provided on the front end of the outer hexagonal rod 103. The fixing ring 105 can be sleeved on the outside of the outer hexagonal rod 103. A threaded through hole is provided on the fixing ring 105, and the threaded through hole can cooperate with the through hole on the outer hexagonal rod 103, so as to facilitate the setting of the fastening screw. The fastening screw is a screw with an inner hexagonal hole at the end, which is convenient for rotation and adjustment. After the sensing probe 104 is inserted into the inner hole of the outer hexagonal rod 103, the fixing ring 105 is put on, and the fastening screw is finally tightened after aligning the through hole to fix the sensing probe 104 on the outer hexagonal rod 103. Through this structure, the forward and backward movement of the sensing probe 104 can be achieved by sliding the outer hexagonal rod 103 forward and backward, and the stabilizing component improves the sliding stability of the outer hexagonal rod 103.

[0022] Secondly, the T-shaped slot 106 passes through the fixing block 101 and is located at the top of the fixing block 101. The threaded reference holes 107 pass through the fixing block 101 and are located on both sides of the fixing block 101. The T-shaped slot 106 passes through the fixing block 101 to facilitate component connection and installation, and the threaded reference holes 107 facilitate corresponding thread processing, thereby facilitating the press-fitting of the hexagonal inner hole guide sleeve 102 on both sides of the fixing block 101, and further securing it with bolts to prevent rotation.

[0023] Then, a limiting groove 108 is provided on the outer hexagonal rod 103. The limiting groove 108 is used to abut the end of the screw to be embedded, so as to facilitate the installation of the stabilizing component.

[0024] Furthermore, the slider 109 is slidably connected to the fixed block 101 and the outer hexagonal rod 103, respectively, and is located in the bottom cavity of the fixed block 101; the pad 110 is disposed between the slider 109 and the fixed block 101. The slider 109 is provided with a matching hole to facilitate the passage of the outer hexagonal rod 103. The slider 109 is provided with three threaded reference holes and corresponding threads for connection. The outer hexagonal rod 103 is provided with avoidance cavities on both sides of the limiting groove 108 to facilitate the connection bolt installation of the pad 110 and the slider 109. After the pad 110 is connected and fixed to the slider 109 by bolts, the slider 109 can be fixed to the outer hexagonal rod 103, thereby providing guidance assistance when the outer hexagonal rod 103 slides, improving stability, and performing position limiting processing.

[0025] Finally, a wear-resistant layer is provided on the inner hexagonal surface of the inner hexagonal guide sleeve 102 and the outer surface of the outer hexagonal rod 103. Providing the wear-resistant layer on the inner hexagonal surface of the inner hexagonal guide sleeve 102 and the outer surface of the outer hexagonal rod 103 improves the wear resistance of the inner hexagonal guide sleeve 102 and the outer hexagonal rod 103, thereby extending the replacement time and reducing the cost of use. Furthermore, the wear-resistant layer does not generate significant frictional resistance, thereby allowing the outer hexagonal rod 103 to slide stably within the inner hexagonal guide sleeve 102.

[0026] The use of the present invention can solve the problem that the traditional displacement device of the sensing probe 104 has unstable guiding, which is not conducive to the stable operation of the sensing probe 104. When in use, the locking screw on the fixing ring 105 is loosened, and the sensing probe 104 can be pulled. After adjusting it to a suitable position, the locking screw is tightened to complete the position adjustment of the sensing probe 104. Further, the present application locks the sensing probe 104 by the screw on the fixing ring 105. The forward and backward movement of the sensing probe 104 is realized by the outer hexagonal rod 103. The inner hexagonal hole guide sleeve 102 is used for the sliding guidance of the outer hexagonal rod 103. The outer hexagonal contact surface of the outer hexagonal rod 103 is larger, which can improve the guiding stability. The stabilizing component is used to further improve the sliding stability of the outer hexagonal rod 103, thereby solving the problem that the traditional displacement device of the sensing probe 104 has unstable guiding, which is not conducive to the stable operation of the sensing probe 104.

[0027] The above disclosure is merely one or more preferred embodiments of the present application and is not intended to limit the scope of the present application. A person skilled in the art will understand that all or part of the processes of the above embodiments and equivalent changes made in accordance with the claims of the present application are still within the scope of the present application.

Claims

1. A hexagonal surface guide sensing structure, comprising a fixed block, characterized in that: Also included are assistive devices; The auxiliary device includes an inner hexagonal hole guide sleeve, an outer hexagonal rod, an induction probe, a fixing ring and a stabilizing assembly. The inner hexagonal hole guide sleeve is fixedly connected to the fixing block and is located on both sides of the fixing block. The outer hexagonal rod is slidably connected to the inner hexagonal hole guide sleeve and is located on one side of the inner hexagonal hole guide sleeve. The induction probe is slidably connected to the outer hexagonal rod, passes through the outer hexagonal rod, and is located on the outer hexagonal rod. The fixing ring is detachably connected to the outer hexagonal rod and is sleeved on the front side of the outer hexagonal rod. The stabilizing assembly is arranged in the bottom cavity of the fixing block.

2. The hexagonal surface guide sensing structure according to claim 1, characterized in that: A T-shaped slot and a threaded reference hole are provided on the top of the fixing block. The T-shaped slot passes through the fixing block and is located on the top of the fixing block; the threaded reference hole passes through the fixing block and is located on both sides of the fixing block.

3. The hexagonal surface guide sensing structure according to claim 1, characterized in that: A limiting groove is provided on the outer hexagonal rod.

4. The hexagonal surface guide sensing structure according to claim 1, characterized in that: The stabilizing assembly includes a slider and a pad. The slider is slidably connected to the fixed block and the outer hexagonal rod respectively and is located in the bottom cavity of the fixed block. The pad is arranged between the slider and the fixed block.

5. The hexagonal surface guide sensing structure according to claim 1, characterized in that: The inner hexagonal hole surface of the inner hexagonal hole guide sleeve and the outer surface of the outer hexagonal rod are respectively provided with a wear-resistant layer.

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