UV light intensity detection device for printing

Abstract

The utility model discloses a UV light intensity detection device for printing, which comprises a UV energy meter main body, a turntable is arranged on the UV energy meter main body, the turntable is driven by a driving part arranged in the UV energy meter main body to rotate on the UV energy meter main body, a plurality of groups of detection probes are distributed on the turntable in a surrounding manner, and the detection probes are arranged on the turntable. Compared with a common UV energy meter main body structure, the UV energy meter of the UV light intensity detection device has the advantages that a plurality of groups of detection probes on the turntable can display corresponding data and mean values according to a plurality of groups of numerical values detected by real-time UV light intensity, so that the accuracy and authenticity of UV light intensity detection data are further improved; in addition, the multiple groups of detection probes can be driven by the driving part to rotate on the turntable of the UV energy meter main body, and UV light intensity detection in a corresponding area can be carried out on a UV light source in a certain irradiation range.

Description

Technical Field

[0001] The utility model relates to the technical field of UV light detection, in particular to a UV light intensity detection device for printing. Background Art

[0002] In the printing industry, UV light curing technology is widely used due to its advantages such as fast curing speed, environmental protection and energy saving. As a key factor affecting the curing effect, the stability and uniformity of UV light intensity are crucial to the quality of printed products. Common means of UV light intensity detection in the existing technology include UV test paper, ultraviolet radiometers, and UV energy meters to detect the intensity of UV light sources. Among them, the UV energy meter is a kind of energy and power detection instrument commonly used for UV light sources. When in use, it is usually measured by aiming the detection probe on the back of the UV light source. The specific parameters measured can be displayed on the display screen. Although it is relatively convenient to use, the common UV energy meter structure often has only one set of detection probes on the back, and multiple measurements are usually required for the UV light source in a certain area. On the one hand, it is not convenient to uniformly observe and memorize multiple data, and there is also a certain measurement error. On the other hand, the measurement accuracy is also relatively unsatisfactory, and the detection time is extended while further reducing the detection efficiency. Utility Model Content

[0003] The purpose of the utility model is to provide a UV light intensity detection device for printing, which can be conveniently used and further improve measurement accuracy and detection efficiency.

[0004] The technical solution adopted by the present invention to solve the above problems is:

[0005] A UV light intensity detection device for printing includes a UV energy meter main body, characterized in that a turntable is provided on the UV energy meter main body, the turntable is driven to rotate on the main body by a driving component provided in the UV energy meter main body, and multiple groups of detection probes are distributed around the turntable.

[0006] Furthermore: the detection probes include power detection probes and temperature detection probes, and the adapter bodies of the multiple groups of detection probes are all slidably arranged on the turntable.

[0007] Furthermore: a wiring groove is provided on the turntable position corresponding to the base body of the multiple groups of detection probes slidably arranged on the turntable.

[0008] Furthermore: the positions of the turntable corresponding to the multiple groups of detection probes slidingly arranged on the turntable are provided with scale lines of a length adapted to their sliding distances, and the multiple groups of detection probes are slidably arranged on the scale lines provided on the turntable through the pointers provided on their bases.

[0009] Furthermore, the adapter bodies of the multiple groups of detection probes all slide on corresponding positions of the turntable using a corresponding damping slide structure.

[0010] Furthermore: the turntable of the UV energy meter body is also covered with an adaptive cover, and the cover is made of either acrylic plate or glass.

[0011] Compared with the prior art, the present invention has the following advantages and effects:

[0012] The utility model is a UV light intensity detection device for printing. Compared with the main body structure of a common UV energy meter, the UV energy meter of this UV light intensity detection device has multiple groups of detection probes on the turntable that can display corresponding data and average values according to multiple groups of values detected by real-time UV light intensity, thereby further improving the accuracy and authenticity of UV light intensity detection data, improving measurement accuracy and reducing certain measurement data errors. In addition, the multiple groups of detection probes can be driven by a driving component to rotate on the turntable of the UV energy meter main body, and can detect the UV light intensity in the corresponding area of the UV light source within a certain irradiation range, thereby comparing with the traditional method of detecting by a group of detection probes. UV energy meters that perform multiple tests have better light intensity detection effects. Multiple sets of data detected by multiple sets of detection probes are convenient for observation and comparison. In addition, this type of UV energy meter can comprehensively detect the light intensity coverage of UV light within a certain range, which is convenient for detecting and adjusting the coverage uniformity of UV light intensity. This is especially important for the combined or replaced UV light sources used in printing equipment, further improving the UV light irradiation stability and printing quality. At the same time, this type of UV energy meter can switch the drive components and control different speeds through the buttons provided on the main body, ensuring the detection effect of the detection probe while improving the convenience and flexibility during use. BRIEF DESCRIPTION OF THE DRAWINGS

[0013] Figure 1-2 It is a schematic diagram of the overall structure of a UV light intensity detection device for printing according to an embodiment of the present utility model.

[0014] Figure 3-4 It is a partially enlarged view of the UV energy meter according to the embodiment of the present utility model.

[0015] Figure numbers: UV energy meter body 100, display screen 101, button 102, drive component 103, turntable 1, slide rail 11, wiring groove 12, cover 13, detection probe 2, power detection probe 21, temperature detection probe 22, base 23, pointer 231, scale line 3. DETAILED DESCRIPTION

[0016] The present invention will be further described in detail below with reference to the accompanying drawings and through examples. The following examples are provided to explain the present invention, but the present invention is not limited to the following examples.

[0017] See also Figure 1-3 This embodiment relates to a UV light intensity detection device for printing, including a UV energy meter body 100. A turntable 1 is provided on the UV energy meter body 100. The turntable 1 is driven to rotate on the body by a driving component 103 provided in the UV energy meter body 100. A plurality of detection probes 2 are distributed around the turntable 1.

[0018] Specifically in this embodiment, see Figure 2 As shown, when using this UV light intensity detection device, multiple detection probes 2 on the back turntable 1 are placed in the direction of the UV light source. During the measurement process, Figure 3 As shown, the driving component 103 provided on the UV energy meter body 100 can drive the turntable 1 to rotate on the UV energy meter body 100, and at the same time drive the multiple groups of detection probes 2 distributed around the turntable 1 to rotate, and the detection data of the multiple groups of detection probes 2 are displayed in real time through the display screen 101 provided on the UV energy meter body 100, thereby realizing light intensity detection in a certain area, and adjusting the UV light source according to the real-time measurement data displayed on the display screen 101 to achieve the best use effect. Compared with the common UV energy meter structure, the UV energy meter of this UV light intensity detection device has the multiple groups of detection probes 2 on the turntable 1. The corresponding data and average value are displayed according to the multiple groups of values detected by the real-time UV light intensity, thereby further improving the accuracy and authenticity of the UV light intensity detection data, improving the measurement accuracy and reducing a certain measurement data error. In addition, the multiple groups of detection probes 2 can The UV energy meter can rotate on the turntable 1 of the UV energy meter body 100 under the drive of the driving component 103, and can detect the UV light intensity in the corresponding area of the UV light source within a certain irradiation range, thereby having a better light intensity detection effect than the traditional UV energy meter that performs multiple detections through a group of detection probes 2. The multiple groups of data detected by multiple groups of detection probes 2 are convenient for observation and comparison, and this UV energy meter can comprehensively detect the light intensity coverage of UV light within a certain range, which is convenient for detecting and adjusting the coverage uniformity of UV light intensity. This is particularly important for the combined or replaced UV light sources used in printing equipment, further improving the irradiation stability and printing quality of UV light. At the same time, this UV energy meter can switch the driving component 103 and control different speeds through the button 102 provided on the main body, ensuring the detection effect of the detection probe 2 while improving the convenience and flexibility during use.

[0019] See also Figure 2The detection probe 2 includes a power detection probe 21 and a temperature detection probe 22. The adapter seat 23 of the multiple groups of detection probes 2 are all slidably set on the turntable 1. The power detection probe 21 and the temperature detection probe 22 can respectively detect the power and temperature of the UV light source to meet different usage requirements. At the same time, the adapter seat 23 of the detection probe 2 is slidably set on the adapter slide rail 11 provided at the corresponding position of the turntable 1, so that when in use, the multiple groups of detection probes 2 can be slid to adjust different positions on the turntable 1, and then by rotating the turntable 1, the multiple groups of detection probes 2 at different positions on the turntable 1 can perform detection on different aperture positions of the specific irradiated UV light source. By judging the detection data corresponding to the detection probes 2 on different detection apertures and the size of the difference, the UV light source at the corresponding position is adaptively adjusted, thereby further improving the detection accuracy of the multiple groups of detection probes 2 on the turntable 1 based on a certain detection range, and meeting the light intensity detection requirements of different UV light.

[0020] A wiring groove 12 is provided at the position of the turntable 1 corresponding to the lower portion of the base 23 of the multiple groups of detection probes 2 slidingly arranged on the turntable 1. The arrangement of the wiring groove 12 can facilitate the connection of the signal line of the detection probe 2 with the internal main line of the UV energy meter, and also facilitates the sliding process of the multiple groups of detection probes 2 at the corresponding positions of the turntable 1. In addition, the wiring groove 12 also facilitates the connection and disassembly of the detection probe 2, and is convenient for the observation and adjustment of the line body.

[0021] See also Figure 4 , the positions of the turntable 1 corresponding to the multiple groups of detection probes 2 slidingly arranged on the turntable 1 are provided with scale lines 3 of a length adapted to their sliding distances, and the multiple groups of detection probes 2 are slidably arranged on the scale lines 3 provided on the turntable 1 through pointers 231 provided on their bases 23. During the sliding process, the detection probes 2 can judge the specific adjustment position of the detection probes 2 by the pointers 231 provided on their bases 23 and the positions corresponding to the scale lines 3 on the turntable 1. The setting of the scale lines 3 on the turntable 1 can further improve the adjustment accuracy of the detection probes 2. At the same time, through the precise control of the sliding distance of the detection probes 2, the detection accuracy within the detection range is further improved, and each group of detection probes 2 can achieve the best detection effect at the corresponding position of the turntable 1, thereby reducing the detection repeatability of the multiple groups of detection probes 2 within the same detection range, so as to improve the detection effect and detection efficiency of this UV energy meter.

[0022] The adapter seats 23 of the multiple groups of detection probes 2 all adopt a corresponding damping slide structure to slide on the corresponding positions of the turntable 1. The detection probe 2 seat 23 adopting the damping slide structure can further improve the fixed stability of the detection probe 2 during the rotation of the turntable 1, facilitate the sliding of the detection probe 2, and avoid unnecessary influence on the detection results caused by vibration or displacement generated during the rotation, thereby improving the stability of the detection process.

[0023] The turntable 1 of the UV energy meter body 100 is also covered with an adaptive cover 13, and the cover 13 is made of any material such as acrylic plate or glass. Figure 2 As shown in the figure, the cover 13 can be covered when the UV energy meter is not in use, thereby preventing dust and other impurities from entering the UV energy meter body 100 or contaminating the detection probe 2 due to long-term storage and affecting the detection effect, making it convenient to use and store. In addition, the cover 13 can be made of any transparent material such as acrylic plate or glass according to specific usage requirements. On the one hand, it is convenient for observing the detection probe 2, and on the other hand, it also increases the aesthetics and ornamental value of the structure of the UV energy meter body 100.

[0024] The above contents described in this specification are merely examples of the present invention. Those skilled in the art of the present invention may make various modifications, additions, or substitute similar methods to the specific embodiments described, as long as they do not deviate from the contents of this specification or exceed the scope defined by the claims, and shall fall within the scope of protection of the present invention.

Claims

1. A UV light intensity detection device for printing, comprising a UV energy meter body, characterized in that: The UV energy meter body is provided with a turntable, which is driven to rotate on the body by a driving component provided in the UV energy meter body. A plurality of detection probes are distributed around the turntable.

2. A UV light intensity detection device for printing according to claim 1, characterized in that: The detection probes include power detection probes and temperature detection probes, and the adapter bodies of the multiple groups of detection probes are all slidably arranged on the turntable.

3. A UV light intensity detection device for printing according to claim 2, characterized in that: A wiring groove is provided on the turntable position corresponding to the bottom of the base body of the multiple groups of detection probes slidably arranged on the turntable.

4. The UV light intensity detection device for printing according to claim 2, characterized in that: The positions of the turntable corresponding to the multiple groups of detection probes slidingly arranged on the turntable are provided with scale lines of length adapted to their sliding distances. The multiple groups of detection probes are slidably arranged on the scale lines provided on the turntable through pointers provided on their bases.

5. The UV light intensity detection device for printing according to claim 2, characterized in that: The adapter seats of the multiple groups of detection probes all slide on corresponding positions of the turntable using a corresponding damping slide structure.

6. The UV light intensity detection device for printing according to claim 1, characterized in that: The turntable of the UV energy meter body is also covered with an adaptive cover, and the cover is made of any material such as acrylic plate or glass.

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