Solar power generation glass illumination table device

Abstract

The invention relates to the technical field of glass detection, and particularly discloses a solar power generation glass illumination table device which comprises a detection table base, and an illumination source generation assembly, a detection path guide assembly, a shielding source simulation assembly, a follow-up decreasing signal trigger module and a follow-up connecting support are installed at the top end of the detection table base. A follow-up connecting bracket is mounted on one side of the detection path guide assembly, and the detection path guide assembly is used for conveying along a distribution path of the detection pedestal during glass illumination detection; the detection path guiding assembly fixes the power generation glass and drives the glass to be conveyed along the distribution path of the guide wheel conveying assembly, the illumination source generating assemblies of different groups simulate sunlight irradiation conditions under different powers in the conveying process, and whether the current power generation glass can still be stably activated or not when passing through the illumination source generating assemblies under all levels of powers is determined. And when the corresponding illumination source generation assembly cannot be activated, the detection path guide assembly is controlled to stop, so that an operator can know the illumination power achievement degree.

Description

Technical Field

[0001] The invention relates to the technical field of metal casting, in particular to a solar power generation glass lighting platform device. Background Art

[0002] Solar power generation glass is mainly composed of top glass, PVB / EVA film, power generation chip, PVB / EVA film and bottom glass. After the processing of this kind of solar power generation glass is completed, the power generation chip needs to be activated. The traditional technical means uses a transport rack to place the power generation glass outdoors, and the processing method of using sunlight to activate the chip is inefficient. Although a lighting table is set up for indoor activation, the lighting conditions are subject to environmental influences and are prone to interference with local lighting surfaces. When it is impossible to determine whether the interference resistance of the power generation glass during activation meets the application standards, it is not conducive to confirming the qualification of the power generation glass. Therefore, under the premise that the existing lighting table is not convenient for simulating interference detection of light passing through the surface, we propose a solar power generation glass lighting table device. Summary of the invention

[0003] In view of the problems in the prior art, the present invention provides a solar power generation glass illumination platform device. The technical solution adopted by the present invention to solve its technical problems is: a solar power generation glass illumination platform device, including a detection platform, the top of which is equipped with a light source generation component, a detection path guide component, a shielding source simulation component, a follow-up decreasing signal trigger module and a follow-up connecting bracket, a follow-up connecting bracket is installed on one side of the detection path guide component, the detection path guide component is used for transmitting along the distribution path of the detection platform during glass illumination detection, the follow-up decreasing signal trigger module and the follow-up connecting bracket are used for automatically adjusting the output power of the shielding source simulation component according to the moving position of the detection path guide component; the shielding source simulation component includes a plurality of multi-gap export nozzles, a continuous support frame, a segmented conduit and an electromagnetic cutoff, the multi-gap export nozzle is fixed The detection platform is fixedly connected to the inner side of the detection platform, the continuous support frame is fixed on the inner peripheral side of the multi-gap outlet nozzle in a rectangular array, the electromagnetic cutoff is fixedly connected to the outer wall of the detection platform, and the electromagnetic cutoffs are interconnected through the segmented conduit; the follow-up decreasing signal trigger module includes a control signal processing unit and a pressure-type touch switch, the pressure-type touch switch is fixedly connected to the outer shell of the control signal processing unit, the signal transmission end of the control signal processing unit is connected to the shielding source simulation component, and the signal transmission end of the pressure-type touch switch is connected to the control signal processing unit. A shielding source suction control module is provided at the bottom of the follow-up connection bracket, and the shielding source suction control module is used to draw the illumination covering medium output by the continuous support frame.

[0004] Preferably, the light source generating assembly includes a tilt angle control driver, a lighting fixture and an enabling signal receiver, the tilt angle control driver is fixedly connected to the bottom of the detection platform, the lighting fixture is fixedly connected to the output end of the enabling signal receiver, the outer shell of the enabling signal receiver is installed on the detection platform, and the enabling signal receiver is signal-connected to the control signal processing unit.

[0005] Preferably, the detection path guiding assembly includes a detection surface transmission rail, a screw drive motor, an electrically controlled steering bracket and a clamping suction cup, the output end of the detection surface transmission rail extends to the inner side of the screw drive motor, and the output end of the detection surface transmission rail is rotatably connected to the screw drive motor, the electrically controlled steering bracket is slidably connected to the inner side of the detection surface transmission rail, the output end of the detection surface transmission rail passes through the electrically controlled steering bracket and is threadedly connected to the electrically controlled steering bracket, and the outer shell of the clamping suction cup is fixedly connected to the electrically controlled steering bracket.

[0006] Preferably, the detection platform is provided with a plurality of light-illuminating hollow slots, and the installation position of the multi-gap outlet nozzle corresponds to the light-illuminating hollow slots.

[0007] Preferably, the shielding source suction regulation module includes a lateral negative pressure suction part, an inlet pressure control valve and a control signal receiving unit, the lateral negative pressure suction part and the control signal receiving unit are both fixedly connected to the follower connecting bracket, the inlet pressure control valve is fixedly connected to the inner side of the lateral negative pressure suction part, the inlet pressure control valve is signal-connected to the control signal receiving unit, and the lateral negative pressure suction part is used to output a light-shielding medium between the light source generating component and the light hollow groove to simulate environmental interference during photoelectric testing.

[0008] Preferably, a guide wheel transmission assembly is provided between each two adjacent illumination hollow grooves, and the guide wheel transmission assembly is fixedly connected to the detection platform.

[0009] Preferably, a supply source host is provided on one side of the detection platform, and an output end of the supply source host is connected to the electromagnetic cutoff device through the segmented conduit.

[0010] Compared with the prior art, the present invention has the following beneficial effects:

[0011] 1. During the standard activation test, the detection path guiding component is set to fix the power-generating glass and drive the glass to be transmitted along the distribution path of the guide wheel transmission component. During the transmission process, different groups of light source generating components simulate the sunlight irradiation conditions under different powers to determine whether the current power-generating glass can still be stably activated when passing through the light source generating components under each level of power. When the corresponding light source generating component cannot be activated, the detection path guiding component is controlled to stop, so that the operator can know the degree of light power achievement.

[0012] 2. During the interference activation test, the detection path guiding component fixes the power generation glass and returns along the distribution path of the guide wheel transmission component, so that the detection path guiding component passes through the various levels of light source generation components for the second time for testing. During the detection process of the power generation glass movement fixed by the detection path guiding component, after reaching the set area of ​​the pressure-type touch switch and triggering the pressure-type touch switch response signal, the control signal processing unit sends a control signal to the supply source host and the electromagnetic cutoff device, so that the corresponding triggering areas of the electromagnetic cutoff devices at all levels are linked and connected, and the interference gas source is transported to the multi-gap export nozzle through the segmented conduit, and the multi-gap export nozzle is vertically exported along the bottom of the illumination hollow groove, so that the interference gas diffuses along the bottom surface of the glass, and then the lateral negative pressure suction part laterally attracts the interference gas, so that the gas is arranged laterally between the illumination hollow groove and the multi-gap export nozzle when it is not in contact with the glass surface, so as to avoid the interference gas directly affecting the glass surface, and at the same time, the interference gas is generated at the bottom of the glass as a light covering medium, thereby simulating the environmental interference during the photoelectric test.

[0013] 3. During the interference activation test, the detection path guiding component moves successively along the arrangement surfaces of the illumination source generating component and the shielding source simulation component, triggering the response signals of the pressure-type touch switches one by one, so that the multi-gap export nozzles corresponding to the position of the triggering pressure-type touch switch response signal are switched to the on state, and the pressure of the multi-gap export nozzles when outputting gas is reduced step by step. At the same time, the feed pressure control valve in the shielding source suction control module increases the negative pressure attraction according to the change of the trigger position of the pressure-type touch switch, and then cooperates with the multi-gap export nozzles to achieve the purpose of reducing the gas interference. When the detection path guiding component moves the glass step by step along the arrangement surface of the illumination hollow groove, a simulation test of multiple gas interference powers can be carried out at one time. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] The present invention is further described below in conjunction with the accompanying drawings and embodiments.

[0015] Figure 1 The structure of a solar power generation glass lighting platform device of the present invention is shown in FIG. Figure 1 .

[0016] Figure 2 The structure of a solar power generation glass lighting platform device of the present invention is shown in FIG. Figure 2 .

[0017] Figure 3 It is a partial schematic diagram of a shielding source suction control module in a solar power generation glass lighting platform device of the present invention.

[0018] In the figure: 1. detection platform; 11. illumination hollow groove; 2. guide wheel transmission component; 3. illumination source generation component; 31. tilt angle control driver; 32. illumination lamp; 33. activation signal receiver; 4. detection path guidance component; 41. detection surface transmission rail; 42. screw drive motor; 43. electric control steering bracket; 44. clamping suction cup; 5. shielding source simulation component; 51. multi-gap outlet nozzle; 52. continuous support frame; 53. segmented conduit; 54. electromagnetic cutoff; 55. supply source host; 6. follow-up decreasing signal trigger module; 61. control signal processing unit; 62. pressure touch switch; 7. follow-up connection bracket; 71. shielding source suction control module; 711. lateral negative pressure suction part; 712. feed pressure control valve; 713. control signal receiving unit. DETAILED DESCRIPTION

[0019] In order to make the technical means, creative features, objectives and effects achieved by the present invention easy to understand, the present invention is further explained below in conjunction with specific implementation methods.

[0020] like Figure 1 - Figure 3As shown, a solar power generation glass illumination platform device described in the present invention includes a detection platform 1, and a light source generating component 3, a detection path guiding component 4, a shielding source simulation component 5, a follow-up decreasing signal triggering module 6 and a follow-up connecting bracket 7 are installed on the top of the detection platform 1. The follow-up connecting bracket 7 is installed on one side of the detection path guiding component 4. The detection path guiding component 4 is used for transmitting along the distribution path of the detection platform 1 during glass illumination detection. The follow-up decreasing signal triggering module 6 and the follow-up connecting bracket 7 are used for automatically adjusting the output power of the shielding source simulation component 5 according to the moving position of the detection path guiding component 4; the shielding source simulation component 5 includes a plurality of multi-gap export nozzles 51, a continuous support frame 52, a segmented conduit 53 and an electromagnetic cutoff 54. The multi-gap export nozzles 51 are fixedly connected On the inner side of the detection platform 1, the row of support frames 52 are fixed in a rectangular array on the inner circumference of the multi-gap outlet nozzle 51, and the electromagnetic cutoff 54 is fixedly connected to the outer wall of the detection platform 1. The electromagnetic cutoffs 54 are interconnected through a segmented conduit 53; the follow-up decreasing signal trigger module 6 includes a control signal processing unit 61 and a pressure-type touch switch 62, the pressure-type touch switch 62 is fixedly connected to the outer shell of the control signal processing unit 61, the signal transmission end of the control signal processing unit 61 is connected to the shielding source simulation component 5, and the signal transmission end of the pressure-type touch switch 62 is connected to the control signal processing unit 61. A shielding source suction control module 71 is provided at the bottom of the follow-up connecting bracket 7, and the shielding source suction control module 71 is used to draw the light covering medium output by the row of support frames 52.

[0021] In this embodiment, in order to solve the problem that it is difficult to determine whether the interference resistance of the power-generating glass when activated meets the application standards, which is not conducive to confirming the qualification of the power-generating glass, the present invention proposes a solar power-generating glass lighting table device.

[0022] In an optional implementation of the present embodiment, the light source generating component 3 includes a tilt angle control driver 31, a lighting fixture 32 and an enabling signal receiver 33, the tilt angle control driver 31 is fixedly connected to the bottom of the detection platform 1, the lighting fixture 32 is fixedly connected to the output end of the enabling signal receiver 33, the outer shell of the enabling signal receiver 33 is installed on the detection platform 1, and the enabling signal receiver 33 is signal-connected to the control signal processing unit 61.

[0023] In an optional implementation of the present embodiment, the detection path guiding assembly 4 includes a detection surface transmission rail 41, a screw drive motor 42, an electrically controlled steering bracket 43 and a clamping suction cup 44, the output end of the detection surface transmission rail 41 extends to the inner side of the screw drive motor 42, and the output end of the detection surface transmission rail 41 is rotatably connected to the screw drive motor 42, the electrically controlled steering bracket 43 is slidably connected to the inner side of the detection surface transmission rail 41, the output end of the detection surface transmission rail 41 passes through the electrically controlled steering bracket 43 and is threadedly connected to the electrically controlled steering bracket 43, and the outer shell of the clamping suction cup 44 is fixedly connected to the electrically controlled steering bracket 43.

[0024] In this embodiment, the light source generating components 3 are arranged in multiple groups, and the frequency of the light sources of the activation signal receivers 33 in each group of the light source generating components 3 decreases step by step, wherein the highest power of the light illuminating lamps 32 is 1200W / m2, and the lowest power is 1000W / m2, and the setting difference of each group is 50W / m2. The present invention can be used for standard activation test, that is, during the standard activation test, by setting the electric control steering bracket 43 in the detection path guiding component 4 to debug the fixed position of the clamping sucker 44, the clamping sucker 44 is rotated to the upper end surface of the glass, and the clamping sucker 44 is placed on the guide wheel transmission group The power-generating glass supported on the upper end of component 2 is fixed, and then the electric-controlled steering bracket 43 is driven by the screw drive motor 42 to slide along the detection surface transmission rail 41, so that the clamping suction cup 44 drives the glass to be transmitted along the distribution path of the guide wheel transmission component 2. During the transmission process, different groups of lighting fixtures 32 simulate the sunlight irradiation conditions under different powers, and determine whether the current power-generating glass can still be stably activated when passing through the lighting fixtures 32 under each level of power, and control the screw drive motor 42 to stop when the corresponding lighting fixture 32 cannot be activated, so that the operator can know the degree of activation of the current glass at each power.

[0025] In an optional implementation of the present embodiment, the detection platform 1 is provided with a plurality of illumination hollow slots 11 , and the installation position of the multi-gap outlet nozzle 51 corresponds to the illumination hollow slots 11 .

[0026] In an optional implementation of the present embodiment, the shielding source suction regulation module 71 includes a lateral negative pressure suction part 711, an inlet pressure control valve 712 and a control signal receiving unit 713. The lateral negative pressure suction part 711 and the control signal receiving unit 713 are both fixedly connected to the follower connecting bracket 7. The inlet pressure control valve 712 is fixedly connected to the inner side of the lateral negative pressure suction part 711. The inlet pressure control valve 712 is signal-connected to the control signal receiving unit 713. The lateral negative pressure suction part 711 is used to output a light-illuminating covering medium between the light source generating component 3 and the light hollow groove 11 to simulate environmental interference during photoelectric testing.

[0027] In this embodiment, after the standard activation test, when the interference activation test is performed on the power-generating glass that has completed the standard activation, the detection path guiding component 4 fixes the power-generating glass to return along the distribution path of the guide wheel transmission component 2, so that the detection path guiding component 4 passes through the various levels of light source generating components 3 for the second time for testing. During the detection process of the power-generating glass fixed by the detection path guiding component 4, the electric control steering bracket 43 reaches the set area of ​​the pressure-type touch switch 62, and squeezes and triggers the pressure-type touch switch 62 response signal, and the control signal processing unit 61 sends a control signal to the supply source host 55 (which is a smoke machine) and the electromagnetic cutoff device 54, so that the electromagnetic cutoff devices 54 at each level correspond to the pressure. The force-type touch switch 62 triggers the position area to realize the linkage conduction between the segmented conduit 53 and the supply source host 55, and the interference gas source is transported to the multi-gap outlet nozzle 51 through the segmented conduit 53, and the multi-gap outlet nozzle 51 vertically outlets the interference gas along the bottom of the illumination hollow groove 11, so that the interference gas diffuses along the bottom surface of the glass, and then the lateral negative pressure suction part 711 laterally attracts the interference gas, so that the gas is laterally arranged between the illumination hollow groove 11 and the multi-gap outlet nozzle 51 without contacting the glass surface, so as to avoid the interference gas from directly affecting the glass surface, and at the same time, the interference gas is generated at the bottom of the glass as a light covering medium, thereby simulating the environmental interference during photoelectric testing.

[0028] In this embodiment, the electromagnetic cutoff device 54 is connected to the pressure-type touch switch 62 signal. After the pressure-type touch switch 62 receives the moving pressure signal of the electronically controlled steering bracket 43, the control signal processing unit 61 sends a cutoff signal to the electromagnetic cutoff device 54 at the corresponding position of the pressure-type touch switch 62, so that when the supply source host 55 outputs the interference gas, it is only input in the direction of the multi-gap outlet nozzle 51 corresponding to the response position of the pressure-type touch switch 62.

[0029] In this embodiment, the pressure-type touch switch 62 is connected to the external PC control terminal, and each pressure-type touch switch 62 is set with a corresponding feed pressure control valve 712 to control the pressure, that is, when the pressure-type touch switch 62 is triggered to change, the control signal receiving unit 713 sends a control signal to the feed pressure control valve 712, and the feed pressure control valve 712 controls the lateral negative pressure suction part 711 to increase the suction negative pressure. During the interference activation test, the detection path guiding component 4 moves successively along the arrangement surface of the light source generating component 3 and the shielding source simulation component 5, and triggers the pressure-type touch switch 62 one by one. The response signal causes the multi-gap export nozzle 51 corresponding to the position of the trigger pressure-type touch switch 62 response signal to switch to the on state, and gradually reduce the pressure of the multi-gap export nozzle 51 when outputting gas. At the same time, the feed pressure control valve 712 in the shielding source suction regulation module 71 increases the negative pressure attraction according to the change of the trigger position of the pressure-type touch switch 62, thereby cooperating with the multi-gap export nozzle 51 to achieve the purpose of reducing the gas interference, so that when the detection path guiding component 4 moves the glass step by step along the arrangement surface of the light-illuminated hollow groove 11, a simulation test of the interference power of multiple gases can be carried out at one time.

[0030] In an optional implementation manner of the present embodiment, a guide wheel transmission assembly 2 is provided between every two adjacent illumination hollow grooves 11 , and the guide wheel transmission assembly 2 is fixedly connected to the detection platform 1 .

[0031] In this embodiment, the guide wheel transmission assembly 2 includes a steering seat and a conduction wheel. During the glass inspection process, the glass is guided by the steering seat and the conduction wheel in the guide wheel transmission assembly 2.

[0032] In an optional implementation of this embodiment, a supply source host 55 is provided on one side of the detection platform 1 , and the output end of the supply source host 55 is connected to the electromagnetic cutoff device 54 through a segmented conduit 53 .

[0033] In this embodiment, the provision of a plurality of electromagnetic cutoff devices 54 serves to cut off the linkage node of the segmented conduit 53 at the output position of the corresponding multi-gap outlet nozzle 51, thereby preventing the interference gas from diffusing along the multi-gap outlet nozzle 51 at the rear end because all the segmented conduits 53 are in a conductive state when only the multi-gap outlet nozzle 51 at the front end is required to output the interference gas.

[0034] The working principle of the present invention is: during the standard activation test, the fixed position of the clamping suction cup 44 is adjusted by setting the electric control steering bracket 43 in the detection path guiding component 4, so that the clamping suction cup 44 is rotated to the upper end surface of the glass, and the power generation glass placed on the upper end support of the guide wheel transmission component 2 is fixed by the clamping suction cup 44, and then the electric control steering bracket 43 is driven by the screw drive motor 42 to slide along the detection surface transmission rail 41, so that the clamping suction cup 44 drives the glass to be transmitted along the distribution path of the guide wheel transmission component 2. During the transmission process, different groups of lighting fixtures 32 simulate the sunlight irradiation conditions under different powers, and determine whether the current power generation glass can still be stably activated when passing through the lighting fixtures 32 under various powers. When it is not activated, the clamping suction cup 44 is released to fix the glass, and the glass is removed. When it is stably activated, the clamping suction cup 44 fixes the power generation glass and the electric control steering bracket 43 is driven by the screw drive motor 42 along The distribution path of the guide wheel transmission component 2 returns, that is, during the detection process of the movement of the power generation glass fixed by the clamping suction cup 44, the electrically controlled steering bracket 43 squeezes and triggers the response signal of the pressure-type touch switch 62, and the control signal processing unit 61 sends a control signal to the supply source host 55 and the electromagnetic cutoff device 54, so that the electromagnetic cutoff devices 54 at each level correspond to the trigger position area of ​​the pressure-type touch switch 62 to realize the linkage conduction between the segmented conduit 53 and the supply source host 55, and the interference gas source is transported to the multi-gap lead-out nozzle 51 through the segmented conduit 53, and the multi-gap lead-out nozzle 51 vertically leads out along the bottom of the illuminated hollow groove 11, so that the interference gas diffuses along the bottom surface of the glass, and then the interference gas is laterally attracted by the lateral negative pressure suction part 711, so that the gas is laterally arranged between the illuminated hollow groove 11 and the multi-gap lead-out nozzle 51 without contacting the glass surface for interference detection, thereby simulating the environmental interference during photoelectric testing.

[0035] The above shows and describes the basic principles, main features and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The above embodiments and descriptions are only for explaining the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which fall within the scope of the present invention. The scope of the present invention is defined by the attached claims and their equivalents.

Claims

1. A solar power generation glass illumination platform device, comprising a detection platform (1), characterized in that: The top of the detection platform (1) is equipped with a light source generating component (3), a detection path guiding component (4), a shielding source simulation component (5), a follow-up decreasing signal triggering module (6) and a follow-up connecting bracket (7); one side of the detection path guiding component (4) is equipped with a follow-up connecting bracket (7); the detection path guiding component (4) is used for transmitting along the distribution path of the detection platform (1) during glass illumination detection; the follow-up decreasing signal triggering module (6) and the follow-up connecting bracket (7) are used for automatically adjusting the output power of the shielding source simulation component (5) according to the moving position of the detection path guiding component (4); the shielding source simulation component (5) comprises a plurality of multi-gap outlet nozzles (51), a row support frame (52), a segmented conduit (53) and an electromagnetic cutoff (54); the multi-gap outlet nozzles (51) are fixedly connected to the inner side of the detection platform (1); the row support frame (5 2) are fixed in a rectangular array on the inner peripheral side of the multi-gap outlet nozzle (51), the electromagnetic cutoff device (54) is fixedly connected to the outer wall of the detection platform (1), and the electromagnetic cutoff devices (54) are interconnected through the segmented conduit (53); the follow-up decreasing signal trigger module (6) includes a control signal processing unit (61) and a pressure-type touch switch (62), the pressure-type touch switch (62) is fixedly connected to the outer shell of the control signal processing unit (61), the signal transmission end of the control signal processing unit (61) is connected to the shielding source simulation component (5), and the signal transmission end of the pressure-type touch switch (62) is connected to the control signal processing unit (61), and a shielding source suction control module (71) is provided at the bottom of the follow-up connection bracket (7), and the shielding source suction control module (71) is used to draw the light-illuminating shielding medium output by the continuous support frame (52).

2. A solar power generation glass illumination platform device according to claim 1, characterized in that: The light source generating component (3) comprises an inclination angle regulating driver (31), an illumination lamp (32) and an enabling signal receiver (33); the inclination angle regulating driver (31) is fixedly connected to the bottom of the detection platform (1); the illumination lamp (32) is fixedly connected to the output end of the enabling signal receiver (33); the outer shell of the enabling signal receiver (33) is installed on the detection platform (1); and the enabling signal receiver (33) is signal-connected to the control signal processing unit (61).

3. A solar power generation glass illumination platform device according to claim 2, characterized in that: The detection path guide component (4) comprises a detection surface transmission rail (41), a screw drive motor (42), an electrically controlled steering bracket (43) and a clamping suction cup (44); the output end of the detection surface transmission rail (41) extends to the inner side of the screw drive motor (42), and the output end of the detection surface transmission rail (41) is rotationally connected to the screw drive motor (42); the electrically controlled steering bracket (43) is slidably connected to the inner side of the detection surface transmission rail (41); the output end of the detection surface transmission rail (41) passes through the electrically controlled steering bracket (43) and is threadedly connected to the electrically controlled steering bracket (43); and the outer shell of the clamping suction cup (44) is fixedly connected to the electrically controlled steering bracket (43).

4. A solar power generation glass illumination platform device according to claim 3, characterized in that: The detection platform (1) is provided with a plurality of light-illuminating hollow slots (11), and the installation position of the multi-gap outlet nozzle (51) corresponds to the light-illuminating hollow slots (11).

5. A solar power generation glass illumination platform device according to claim 4, characterized in that: The shielding source suction control module (71) comprises a transverse negative pressure suction part (711), a feed pressure control valve (712) and a control signal receiving unit (713); the transverse negative pressure suction part (711) and the control signal receiving unit (713) are both fixedly connected to the follower connection bracket (7); the feed pressure control valve (712) is fixedly connected to the inner side of the transverse negative pressure suction part (711); the feed pressure control valve (712) is signal-connected to the control signal receiving unit (713); the transverse negative pressure suction part (711) is used to output a light-illuminating shielding medium between the light-illuminating source generating component (3) and the light-illuminating hollow slot (11) for simulating environmental interference during photoelectric testing.

6. A solar power generation glass illumination platform device according to claim 4, characterized in that: A guide wheel transmission assembly (2) is provided between each two adjacent illumination hollow slots (11), and the guide wheel transmission assembly (2) is fixedly connected to the detection platform (1).

7. The solar power generation glass illumination platform device according to claim 1, characterized in that: A supply source host (55) is provided on one side of the detection platform (1), and an output end of the supply source host (55) is connected to the electromagnetic cutoff device (54) through the segmented conduit (53).

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