Spacer detection method, system and device
A spacer and infrared technology, applied in measuring devices, optical devices, instruments, etc., can solve problems such as complex optical systems, poor display whiteness, and high equipment maintenance costs
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Embodiment 1
[0050] In the first embodiment, a method for detecting septa is provided, and the steps are as follows: image 3 As shown, it specifically includes the following steps:
[0051] Step S1: The multiple sub-light sources emit infrared rays with different wavelengths and the same light intensity at non-overlapping timings, and the infrared rays are irradiated on the spacer.
[0052] Step S2: Time-sharing collection of infrared images formed by infrared rays of different wavelengths reflected by the spacer.
[0053] Step S3: Perform cumulative calculation on the light intensity of each pixel in the infrared image collected with different wavelengths to obtain the total light intensity of the entire image.
[0054] Step S4: The total light intensity calculated under different wavelengths is compared, and the distance between the spacers is calculated according to the infrared image corresponding to the maximum value of the total light intensity.
[0055] The above-mentioned detection method f...
Embodiment 2
[0066] The second embodiment of the present invention also provides a system for detecting septa. The composition diagram is as Figure 4 As shown, specifically including:
[0067] The light source 1, the imaging unit 2, the control unit 3, the light intensity accumulation unit 4, and the comparison calculation unit 5. The light source 1 provides multiple sub-light sources, which emit infrared rays with different wavelengths and the same light intensity at non-overlapping timing; the imaging unit 2 Used for time-sharing collection of infrared images formed by infrared rays of different wavelengths reflected by the spacer; the control unit 3 is connected to the light source 1 and the image capturing unit 2, and controls the multiple sub-light sources of the light source 1 to emit at different times Infrared rays with the same light intensity, and control the imaging unit 2 to collect the reflected infrared rays of different wavelengths; the light intensity accumulation unit 4 is co...
Embodiment 3
[0084] The third embodiment of the present invention also provides a device for detecting septa. The schematic diagram of the structure is as follows: Figure 5 As shown, specifically including the abutment, Figure 5 Not shown, the base is also provided with a horizontal guide rail 11, a vertical guide rail 12 and an infrared camera tube 13, wherein the infrared camera tube 13 is installed on the vertical guide rail 12 and also moves in the vertical direction along the vertical guide rail 12. Specifically, The infrared camera tube 13 is sleeved on the vertical guide rail 12, and the two ends of the vertical guide rail 12 slide in the horizontal direction on the horizontal guide rail 11, so as to realize the omni-directional scanning of the color film substrate by the infrared camera tube 13. The infrared camera tube 13 is The imaging unit in the system for detecting septa described in the second embodiment.
[0085] Preferably, the device in this embodiment further includes an ...
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