A powder coating multi-parameter detection device

Abstract

The utility model relates to detection technical field especially discloses a kind of powder coating multi-parameter detection equipment, including frame body, first bearing and the first driving part for driving first bearing reciprocating movement are arranged on frame body;Frame body is also provided with the second bearing for bearing external material piece, detection component for detecting external material piece is arranged on first bearing, and detection component includes ring body and the detection piece of setting on ring body, realize the effect that external material piece placed on second bearing is detected to multiple parameters, wherein first driving part drives first bearing reciprocating movement can drive detection component flexible movement, it is convenient to detect different positions of material piece, and the ring body of detection component and detection piece cooperation can comprehensively, accurately obtain the multiple parameter information of material piece, finally reaches the effect that powder coating material piece multiple parameter detection is efficiently, accurately completed.

Description

Technical Field

[0001] This utility model relates to the field of testing technology, and in particular discloses a multi-parameter testing device for powder coatings. Background Technology

[0002] In the production, research and development, and quality control of powder coatings, multi-parameter testing is crucial. Various performance parameters of powder coatings, such as particle size distribution, color uniformity, component content, and surface roughness, directly affect the quality, coating effect, and application performance of the final product. Accurately and comprehensively obtaining this parameter information is key for manufacturers to optimize production processes, ensure product quality stability, meet the needs of different customers, and gain a competitive edge in the market.

[0003] However, existing powder coating testing equipment often has many limitations. Traditional testing equipment can usually only test a single parameter. To obtain information on multiple parameters, multiple different devices need to be used for testing, which not only increases testing costs but also makes the testing process cumbersome, time-consuming, and reduces production efficiency. Moreover, due to differences in testing environment and operating methods between different devices, the test results may lack consistency and comparability, affecting the accurate evaluation of the overall performance of powder coatings. Utility Model Content

[0004] In order to overcome the shortcomings and deficiencies of the existing technology, the purpose of this utility model is to provide a multi-parameter detection device for powder coatings.

[0005] To achieve the above objectives, the present invention provides a multi-parameter testing device for powder coatings, comprising a frame, on which a first support member and a first driving member for driving the first support member to reciprocate are provided; the frame is also provided with a second support member for supporting external material components, and the first support member is provided with a testing component for detecting the external material components, the testing component comprising a ring and a testing element disposed on the ring.

[0006] Preferably, several detection elements are arranged in a ring array on the ring body, enabling simultaneous multi-parameter detection of the material from multiple angles and positions. The collaborative operation of multiple detection elements allows for the capture of various characteristic parameters of the material from different locations, avoiding information biases that may arise from a single detection point. This achieves comprehensive and detailed acquisition of multi-parameter information of the material, significantly improving detection accuracy and completeness, ensuring that the detection results truly reflect the overall condition of the material, and providing a reliable basis for subsequent quality assessment and process adjustment.

[0007] Preferably, a first track is slidably mounted on the frame, and a first bearing member is slidably mounted on the first track. The reciprocating motion direction of the first bearing member intersects with the reciprocating motion direction of the first track, thereby enabling the detection component to move flexibly in two vertical directions. This achieves the effect of covering a larger detection area of ​​the material, improving the flexibility and comprehensiveness of the detection.

[0008] Preferably, a third driving component is provided on the first track body. The third driving component is used for the first carrier to slide on the first track body, thereby achieving precise control over the position of the first carrier on the first track body. This enables flexible adjustment of the position of the detection components according to detection requirements, thereby improving detection efficiency and accuracy.

[0009] Preferably, the direction in which the third driving component drives the first carrier component intersects with the direction in which the first driving component drives the first track, achieving independent and coordinated movement of the detection component in two mutually perpendicular directions. This design allows the detection component to move simultaneously or separately in both directions, thereby enabling comprehensive detection of complex shapes and structures of material components. The independent movements in the two directions can be flexibly combined according to the specific characteristics of the material component, improving the targeting and effectiveness of the detection, and thus achieving the effect of accurately detecting different positions of the material component, improving the flexibility and accuracy of the detection.

[0010] Preferably, two first driving components are provided, forming a CoreXY structure, which enables the first track body to reciprocate rapidly, smoothly, and accurately on the frame. The CoreXY structure, with its unique transmission method, allows the two driving components to work collaboratively, jointly driving the first track body. This structure not only improves the smoothness and accuracy of the motion but also accelerates the movement speed, enabling the detection component to respond quickly and reach the designated position. Simultaneously, the CoreXY structure also possesses excellent anti-interference capabilities and stability, maintaining stable motion performance in complex environments, thereby improving the stability and accuracy of the detection component's movement, and ultimately enhancing detection efficiency and accuracy.

[0011] Preferably, the frame is equipped with a limiting component and a second driving component for driving the limiting component to reciprocate. The reciprocating motion direction of the limiting component is perpendicular to the direction in which the third driving component drives the first carrier component and the direction in which the first driving component drives the first track. The second carrier component is mounted on the limiting component, enabling the second carrier component to adjust its position in three perpendicular directions. This three-dimensional position adjustment design allows the second carrier component to be precisely positioned according to the detection requirements, ensuring that the relative positional relationship between the material and the detection component meets the detection requirements. Simultaneously, the independent motion control in three directions allows for flexible adjustment according to the different shapes and sizes of the material, improving the adaptability and flexibility of the detection process. This achieves the effect of flexibly adjusting the position of the material according to the detection requirements, ensuring that the detection component can accurately detect the material.

[0012] Preferably, the second support component is detachably mounted on the limiting component via external bolts. This bolted connection allows for convenient and quick replacement of the second support component, while ensuring its stable fixation to the limiting component after replacement. This design not only improves the equipment's versatility and flexibility but also reduces maintenance and time costs, thereby facilitating the replacement of different specifications or types of materials for testing and enhancing the equipment's overall versatility and flexibility.

[0013] Preferably, the ring body is arranged in a circular array of rods, and the detection components are mounted on the ring body via these rods, achieving stable fixation and distribution of the detection components on the ring body. The rods, acting as a bridge connecting the ring body and the detection components, not only provide a stable support structure but also ensure the uniform distribution of the detection components on the ring body. This allows the detection components to evenly cover the detection area of ​​the material, avoiding detection blind spots or duplicate detection caused by uneven distribution. Furthermore, the length and angle of the rods can be adjusted according to actual detection needs to accommodate the detection of material components of different shapes and sizes, thereby ensuring that the detection components can accurately acquire multi-parameter information of the material, improving the stability and accuracy of the detection.

[0014] Preferably, a first plate is provided at the end of the rod, and a second plate is rotatably mounted on the first plate. The detection element is detachably mounted on the second plate, enabling angle adjustment and quick replacement of the detection element. The rotatable connection design of the first and second plates allows the detection element to be angled according to detection requirements to adapt to the detection of materials with different shapes and surfaces. Simultaneously, the detachable design of the detection element allows for convenient and quick replacement when it is damaged or aged, without the need to disassemble and repair the entire detection assembly. This not only improves the maintainability and service life of the equipment but also reduces maintenance and time costs. Ultimately, it achieves the effect of flexibly adjusting the angle of the detection element according to detection requirements to adapt to the detection of materials with different shapes and sizes, while facilitating the replacement of damaged or aged detection elements, thus improving the maintainability and service life of the equipment.

[0015] The beneficial effects of this utility model are: it enables multi-parameter detection of external material components placed on the second carrier, wherein the first driving component drives the first carrier to reciprocate, which can drive the detection component to move flexibly, making it convenient to detect different positions of the material component. The ring body of the detection component and the detection component work together to comprehensively and accurately obtain multi-parameter information of the material component, ultimately achieving the effect of efficiently and accurately completing multi-parameter detection of powder coating material components. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the main body structure of this utility model;

[0017] Figure 2 This is one of the schematic diagrams of the detection component structure of this utility model;

[0018] Figure 3 This is the second schematic diagram of the detection component structure of this utility model;

[0019] Figure 4 This is a schematic diagram of the CoreXY structure of this utility model;

[0020] Figure 5 This is a schematic diagram of the detection component of this utility model.

[0021] The reference numerals in the figures include:

[0022] 1. Frame; 2. First load-bearing component; 3. First rail; 4. First drive component; 5. Limiting component; 6. Second load-bearing component; 7. Second drive component; 8. Detection component; 9. Third drive component; 81. Ring; 82. Rod component; 83. First plate component; 84. Second plate component; 85. Detection component; 86. Shaft. Detailed Implementation

[0023] To facilitate understanding by those skilled in the art, the present invention will be further described below with reference to embodiments and accompanying drawings. The content mentioned in the embodiments is not intended to limit the present invention.

[0024] Please see Figures 1 to 5 As shown, a multi-parameter testing device for powder coatings according to this utility model includes a frame 1, on which a first support member 2 and a first driving member 4 for driving the first support member 2 to reciprocate are provided; the frame 1 is also provided with a second support member 6 for carrying external material components, and the first support member 2 is provided with a testing component 8 for detecting external material components, the testing component 8 including a ring 81 and a testing element 85 disposed on the ring 81.

[0025] Specifically, it enables multi-parameter detection of external material components placed on the second carrier 6. The first driving component 4 drives the first carrier 2 to reciprocate, which can drive the detection component 8 to move flexibly, making it convenient to detect different positions of the material component. The ring 81 of the detection component 8 and the detection component 85 work together to comprehensively and accurately obtain multi-parameter information of the material component, ultimately achieving the effect of efficiently and accurately completing multi-parameter detection of powder coating material components.

[0026] Specifically, several detection elements 85 are arranged in a ring array on the ring body 81, enabling simultaneous multi-parameter detection of the material from multiple angles and positions. The coordinated operation of multiple detection elements 85 allows for the capture of various characteristic parameters of the material from different locations, avoiding information biases that may arise from a single detection point. This achieves comprehensive and detailed acquisition of multi-parameter information of the material, significantly improving detection accuracy and completeness, ensuring that the detection results truly reflect the overall condition of the material, and providing a reliable basis for subsequent quality assessment and process adjustments.

[0027] Specifically, a first rail 3 is slidably mounted on the frame 1, and a first bearing member 2 is slidably mounted on the first rail 3. The reciprocating motion direction of the first bearing member 2 intersects with the reciprocating motion direction of the first rail 3, thereby realizing the flexible movement of the detection component 8 in two vertical directions. This achieves the effect of covering a larger detection area of ​​the material and improving the flexibility and comprehensiveness of the detection.

[0028] Specifically, a third driving component 9 is provided on the first track body 3. The third driving component 9 is used for the first bearing component 2 to slide on the first track body 3, thereby realizing the precise control of the position of the first bearing component 2 on the first track body 3. This enables the position of the detection component 8 to be flexibly adjusted according to the detection requirements, thereby improving the detection efficiency and accuracy.

[0029] Specifically, the direction in which the third driving component 9 drives the first bearing component 2 intersects with the direction in which the first driving component 4 drives the first track 3, thus achieving independent and coordinated movement of the detection component 8 in two mutually perpendicular directions. This design allows the detection component 8 to move simultaneously or separately in both directions, thereby enabling comprehensive detection of complex shapes and structures of material components. The independent movements in the two directions can be flexibly combined according to the specific characteristics of the material component, improving the targeting and effectiveness of the detection, and ultimately achieving the effect of accurately detecting different positions of the material component, improving the flexibility and accuracy of the detection.

[0030] Specifically, there are two first drive components 4, which together form a CoreXY structure, enabling the first track 3 to reciprocate rapidly, smoothly, and precisely on the frame 1. The CoreXY structure, with its unique transmission method, allows the two drive components to work collaboratively to drive the first track 3. This structure not only improves the smoothness and accuracy of the movement but also accelerates the movement speed, allowing the detection component 8 to respond quickly and reach the designated position. Simultaneously, the CoreXY structure also possesses excellent anti-interference capabilities and stability, maintaining stable motion performance in complex environments, thereby improving the stability and accuracy of the detection component 8's movement, and ultimately enhancing detection efficiency and accuracy.

[0031] Specifically, the frame 1 is equipped with a limiting component 5 and a second driving component 7 for driving the limiting component 5 to reciprocate. The reciprocating motion direction of the limiting component 5 is perpendicular to the motion direction of the first bearing component 2 driven by the third driving component 9 and the motion direction of the first track 3 driven by the first driving component 4. The second bearing component 6 is mounted on the limiting component 5, realizing the position adjustment function of the second bearing component 6 in three perpendicular directions. This three-dimensional position adjustment design allows the second bearing component 6 to be precisely positioned according to the detection requirements, ensuring that the relative positional relationship between the material and the detection component 8 meets the detection requirements. At the same time, the independent motion control in three directions can be flexibly adjusted according to the different shapes and sizes of the material, improving the adaptability and flexibility of the detection, thereby achieving the effect of flexibly adjusting the position of the material according to the detection requirements, ensuring that the detection component 8 can accurately detect the material.

[0032] Specifically, the second support component 6 is detachably mounted on the limiting component 5 via external bolts. This bolted connection allows for convenient and quick replacement of the second support component 6, while ensuring its stable fixation on the limiting component 5 after replacement. This design not only improves the equipment's versatility and flexibility but also reduces maintenance and time costs, thereby facilitating the replacement of different specifications or types of materials for testing and enhancing the equipment's overall versatility and flexibility.

[0033] Specifically, rods 82 are arranged in a ring array on the ring body 81. Detection elements 85 are mounted on the ring body 81 via the rods 82, achieving stable fixation and distribution of the detection elements 85 on the ring body 81. The rods 82, acting as a bridge connecting the ring body 81 and the detection elements 85, not only provide a stable support structure but also ensure the uniform distribution of the detection elements 85 on the ring body 81. This allows the detection elements 85 to evenly cover the detection area of ​​the material, avoiding detection blind spots or duplicate detection caused by uneven distribution of the detection elements 85. Furthermore, the length and angle of the rods 82 can be adjusted according to actual detection needs to adapt to the detection of material elements of different shapes and sizes, thereby ensuring that the detection elements 85 can accurately acquire multi-parameter information of the material, improving the stability and accuracy of the detection.

[0034] Specifically, a first plate 83 is provided at the end of the rod component 82, and a second plate 84 is rotatably mounted on the first plate 83. The detection component 85 is detachably mounted on the second plate 84, enabling angle adjustment and quick replacement of the detection component 85. The rotatable connection design of the first plate 83 and the second plate 84 allows the detection component 85 to be angled according to detection requirements to adapt to the detection of materials with different shapes and surfaces. Simultaneously, the detachable design of the detection component 85 allows for convenient and quick replacement when it is damaged or aged, without the need to disassemble and repair the entire detection assembly 8. This not only improves the maintainability and service life of the equipment but also reduces maintenance and time costs. Ultimately, it achieves the effect of flexibly adjusting the angle of the detection component 85 according to detection requirements to adapt to the detection of materials with different shapes and sizes, while facilitating the replacement of damaged or aged detection components 85, thus improving the maintainability and service life of the equipment.

[0035] Specifically, the first plate member 83 is disc-shaped, and the second plate member 84 has a groove for accommodating the first plate member 83.

[0036] Specifically, the second plate member 84 is provided with a shaft 86 that is rotatably configured with respect to the first plate member 83.

[0037] Specifically, the shaft 86 and the first plate 83 are respectively provided with a ring of pins and grooves.

[0038] Specifically, the rod member 82 is slidably mounted on the ring body 81 via an external screw member / drive member.

[0039] Specifically, the second plate member 84 is rotated relative to the first plate member 83 via other driving members.

[0040] Specifically, limit clips are provided on the rod body 82 and / or the second plate body 84 to limit the wire.

[0041] Specifically, the detection elements 85 on the multiple second plate components 84 can be the same or different, and the second carrier component 6 can also be equipped with a material rotation and fixing module, which will not be elaborated on here.

[0042] The above description is only a preferred embodiment of this utility model. For those skilled in the art, there will be changes in the specific implementation method and application scope based on the idea of ​​this utility model. The content of this specification should not be construed as a limitation of this utility model.

Claims

1. A multi-parameter testing device for powder coatings, comprising a frame (1), a first support member (2) and a first driving member (4) for driving the first support member (2) to reciprocate; characterized in that: The frame (1) is also provided with a second support member (6) for carrying external materials, and the first support member (2) is provided with a detection component (8) for detecting external materials. The detection component (8) includes a ring (81) and a detection element (85) provided on the ring (81).

2. The powder coating multi-parameter testing device according to claim 1, characterized in that: There are several detection elements (85), and the several detection elements (85) are arranged in a ring array on the ring body (81).

3. The powder coating multi-parameter testing device according to claim 1, characterized in that: A first rail (3) is slidably mounted on the frame (1), and a first bearing member (2) is slidably mounted on the first rail (3). The reciprocating motion direction of the first bearing member (2) intersects the reciprocating motion direction of the first rail (3).

4. The powder coating multi-parameter testing device according to claim 3, characterized in that: A third driving member (9) is provided on the first track body (3), and the third driving member (9) is used for the first bearing member (2) to slide on the first track body (3).

5. The powder coating multi-parameter testing device according to claim 4, characterized in that: The direction of motion of the third driving component (9) driving the first bearing component (2) intersects with the direction of motion of the first driving component (4) driving the first track body (3).

6. The powder coating multi-parameter testing device according to claim 1, characterized in that: There are two first driving units (4), and the two first driving units (4) constitute the CoreXY structure.

7. The powder coating multi-parameter testing device according to claim 1, characterized in that: The frame (1) is provided with a limiting member (5) and a second driving member (7) for driving the limiting member (5) to reciprocate. The reciprocating motion direction of the limiting member (5) is perpendicular to the motion direction of the first bearing member (2) driven by the third driving member (9) and the motion direction of the first rail body (3) driven by the first driving member (4). The second bearing member (6) is provided on the limiting member (5).

8. A multi-parameter testing device for powder coatings according to claim 7, characterized in that: The second bearing member (6) is detachably mounted on the limiting member (5) via external bolts.

9. The powder coating multi-parameter testing device according to claim 1, characterized in that: The ring body (81) is provided with rods (82) arranged in a ring array, and the detection element (85) is arranged on the ring body (81) via the rods (82).

10. A multi-parameter testing device for powder coatings according to claim 9, characterized in that: A first plate (83) is provided at the end of the rod (82), and a second plate (84) is rotatably provided on the first plate (83). The detection piece (85) is detachably provided on the second plate (84).

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