Ultraviolet radiation exposure metering device and method of use

Abstract

The application discloses a kind of ultraviolet radiation illuminance metering devices and application method, it is related to the technical field of ultraviolet radiation illuminance meter calibration, comprising: rack and multiple installation strips, rack fixedly connected with integrating sphere, integrating sphere is equipped with light inlet hole and multiple light outlet holes, multiple light outlet holes are set along the circumference of integrating sphere, and integrating sphere is installed with ultraviolet radiation source;Integrating sphere is installed with multiple lenses;Installation strip and light outlet hole one-to-one correspondence, installation strip is slidably arranged in rack, and installation strip is arranged along vertical direction, and multiple clamps are installed on installation strip along vertical direction, and clamp is used to fix ultraviolet radiation illuminance meter or ultraviolet radiation illuminance standard device.The application has the effect of improving the efficiency of ultraviolet radiation illuminance meter calibration, thereby reducing the time required for ultraviolet radiation illuminance meter calibration.

Description

TECHNICAL FIELD

[0001] The application relates to the technical field of calibration of ultraviolet radiation illuminometers, in particular to an ultraviolet radiation illuminometer calibration device and an application method. BACKGROUND

[0002] An ultraviolet radiation illuminometer is a professional instrument used to measure the radiation intensity of ultraviolet light. This instrument has applications in multiple fields, such as photochemistry, material aging testing, non-destructive testing, medical disinfection, plant growth lamps, and other fields.

[0003] The working principle of an ultraviolet radiation illuminometer is mainly based on the photoelectric effect. The instrument is usually composed of a photosensitive sensor and a microammeter. When ultraviolet light shines on the photosensitive sensor, a photoelectric effect occurs on the semiconductor material, resulting in a potential difference at the junction of the semiconductor and the metal film. The generated potential difference will generate a current through the external circuit, and the current value can be indicated on the microammeter. By measuring the generated current or voltage, the ultraviolet radiation illuminometer can convert the light signal into an electrical signal and finally display the radiation intensity of the ultraviolet light in digital form.

[0004] Before using an ultraviolet radiation illuminometer, it needs to be calibrated first. The equipment needed during calibration includes a light shielding box, an ultraviolet radiation source, a to-be-detected ultraviolet radiation illuminometer, and an ultraviolet radiation illuminometer standard. During calibration, the ultraviolet radiation source, the to-be-detected ultraviolet radiation illuminometer, and the ultraviolet radiation illuminometer standard are all set inside the light shielding box. Then, the ultraviolet radiation illuminometer is turned on and preheated for 30 minutes. Then, the to-be-detected ultraviolet radiation illuminometer and the ultraviolet radiation illuminometer standard are used in turn to measure the ultraviolet irradiance of the ultraviolet radiation source at different distances. The above measurement process is repeated at least three times, and the to-be-detected ultraviolet radiation illuminometer is calibrated according to the measurement results of the to-be-detected ultraviolet radiation illuminometer and the ultraviolet radiation illuminometer standard.

[0005] However, in the related art, during the calibration of the ultraviolet radiation illuminometer, the ultraviolet radiation source needs to be turned off first, and then the position of the ultraviolet radiation illuminometer standard or the ultraviolet radiation illuminometer needs to be replaced or adjusted. This makes the ultraviolet radiation illuminometer need to be preheated multiple times to complete the calibration of the ultraviolet radiation illuminometer, thereby reducing the efficiency of the calibration of the ultraviolet radiation illuminometer. SUMMARY

[0006] In order to improve the efficiency of the calibration of the ultraviolet radiation illuminometer and thereby reduce the time required for the calibration of the ultraviolet radiation illuminometer, the application provides an ultraviolet radiation illuminometer calibration device and an application method.

[0007] The application provides an ultraviolet radiation illuminometer calibration device and an application method, which adopts the following technical solution:

[0008] An ultraviolet radiation irradiance metering device and application method, comprising:

[0009] A rack is fixedly connected with an integrating sphere, the integrating sphere is provided with a light inlet hole and a plurality of light outlet holes, the plurality of light outlet holes are arranged along the circumference of the integrating sphere, the integrating sphere is installed with an ultraviolet radiation source, and the ultraviolet radiation source corresponds to the light inlet hole;

[0010] The integrating sphere is installed with a plurality of lenses, and the light inside the integrating sphere is sequentially emitted out of the integrating sphere through the light outlet holes and the lenses;

[0011] A plurality of mounting strips correspond to the light outlet holes one by one, the mounting strips are slidingly arranged in the rack, the moving direction of the mounting strips is the vertical direction and / or the radial direction of the integrating sphere, the mounting strips are arranged along the vertical direction, the mounting strips are installed with a plurality of clamps along the vertical direction, and the clamps are used for fixing ultraviolet radiation illuminance meters or ultraviolet radiation illuminance standard devices;

[0012] When the mounting strips move along the vertical direction, the ultraviolet radiation illuminance meters on the mounting strips are sequentially aligned with the corresponding lenses and receive the light emitted from the lenses, and when the mounting strips move along the radial direction of the integrating sphere, the ultraviolet radiation illuminance meters on the mounting strips move towards the direction close to and away from the corresponding light outlet holes;

[0013] A first driving member is used for driving the mounting strips to move along the vertical direction and / or the radial direction of the integrating sphere.

[0014] By adopting the above technical scheme, the ultraviolet radiation source emits ultraviolet rays into the integrating sphere through the light inlet hole, the integrating sphere emits the ultraviolet rays emitted by the ultraviolet radiation source through the light outlet hole, and the light intensity of the light emitted by each light outlet hole is the same. A plurality of ultraviolet radiation illuminance meters are fixed on a plurality of mounting strips by clamps, a plurality of ultraviolet radiation illuminance standard devices are fixed on one mounting strip by clamps, the ultraviolet radiation source is preheated, the plurality of mounting strips move along the vertical direction, so that at least one ultraviolet radiation illuminance standard device and a plurality of ultraviolet radiation illuminance meters are aligned with the corresponding lenses, and the plurality of mounting strips move along the radial direction of the integrating sphere, so that the distance between the ultraviolet radiation illuminance meter and the corresponding lens and the distance between the ultraviolet radiation illuminance standard device and the corresponding lens are both the experimental required distance. After the ultraviolet radiation source is preheated, the ultraviolet radiation illuminance meter and the ultraviolet radiation illuminance standard device measure the radiation intensity of the light emitted by the lens of the integrating sphere. The ultraviolet radiation irradiance metering device can simultaneously calibrate a plurality of ultraviolet radiation illuminance meters, thereby improving the calibration efficiency and improving the consistency and accuracy between the plurality of ultraviolet radiation illuminance meters.

[0015] Optionally, the lens comprises a lens barrel, a first guide rail and two lenses slidingly arranged on the first guide rail, the lens barrel is fixedly connected with the integrating sphere, a length direction of the lens barrel is arranged along a radial direction of the integrating sphere, the first guide rail is arranged along the length direction of the lens barrel and is fixedly connected with the lens barrel, the lens barrel is provided with a second driving member, and the second driving member is used to drive the two lenses to move towards each other and move away from each other.

[0016] By adopting the above technical scheme, the second driving member drives the two lenses to move towards each other and move away from each other, so as to adjust the distance between the two lenses, so that the focal length of the lens can be adjusted according to experimental requirements.

[0017] Optionally, the second driving member comprises a first driving motor and a screw rod, the screw rod is provided with two thread segments with opposite rotation directions, one thread segment is threadedly connected with one lens, and the other thread segment is threadedly connected with the other lens, an output end of the first driving motor is fixedly connected with the screw rod in a coaxial manner, and a rotation axis of the output end of the first driving motor is parallel to the length direction of the lens barrel.

[0018] By adopting the above technical scheme, the two thread segments with opposite rotation directions enable the two lenses to move towards each other or move away from each other when the screw rod rotates.

[0019] Optionally, a plurality of light shielding assemblies are arranged, the light shielding assemblies and the lens barrel are in one-to-one correspondence, the light shielding assembly comprises a second guide rail, a first sealing ring and a second sealing ring, the first sealing ring and the second sealing ring are both magnetic, the second guide rail is fixedly connected with the lens barrel along the length direction of the lens barrel, one end of the second guide rail protrudes from one end of the lens barrel away from the integrating sphere, the first sealing ring is slidingly connected with the second guide rail along the length direction of the lens barrel, a first light shielding cover is connected between the first sealing ring and the lens barrel, the first light shielding cover is flexible and can be folded and unfolded along the length direction of the lens barrel, the second sealing ring is slidingly connected with the mounting strip along the radial direction of the integrating sphere, a second light shielding cover is connected between the second sealing ring and the mounting strip, the second light shielding cover is flexible and can be folded and unfolded along the radial direction of the integrating sphere, and the ultraviolet radiation intensity meter is arranged in the second light shielding cover.

[0020] When the first sealing ring and the second sealing ring are coaxial, the first sealing ring and the second sealing ring are attracted to each other in a direction of moving towards each other due to the magnetic attraction, so that the first light shielding cover and the second light shielding cover abut against each other.

[0021] By adopting the technical scheme, the mounting strip moves along the vertical direction to drive the ultraviolet radiation illuminometer to move along the vertical direction to align with the corresponding lens, when the ultraviolet radiation illuminometer moves to align with the corresponding lens, the first sealing ring and the second sealing ring move to the direction of approaching each other due to magnetic attraction, so that the first light shield and the second light shield are expanded and abut at the same time, so that one end of the light emitted by the lens and the corresponding ultraviolet radiation illuminometer are located in a closed space, thereby reducing the influence of the light emitted by the lens on other ultraviolet radiation illuminometers.

[0022] Optionally, the first sealing ring is connected with the second guide rail through a first elastic member, and the second sealing ring is connected with the mounting strip through a second elastic member.

[0023] By adopting the technical scheme, the first sealing ring and the second sealing ring move to the direction of approaching each other, so that the first elastic member and the second elastic member deform when the first light shield and the second light shield abut. When the mounting strip moves along the vertical direction to separate one first sealing ring and the second sealing ring, the distance between the first sealing ring and the second sealing ring increases, so that the magnetic force between the first sealing ring and the second sealing ring is smaller than the elastic force of the deformation of the first elastic member and the second elastic member, and the first elastic member and the second elastic member recover the deformation, so that the first sealing ring and the second sealing ring move to the direction of moving away from each other.

[0024] Optionally, the first driving member includes a second driving motor, a first driving gear, a plurality of second driving gears, a plurality of driving racks and a plurality of driving cylinders, the first driving gear is rotationally connected to the rack, the rotation axis of the first driving gear is arranged along the vertical direction, the output end of the second driving motor is fixedly connected with the first driving gear coaxially, the rotation axis of the second driving motor is arranged along the vertical direction, a plurality of the second driving gears are arranged around the first driving gear, the second driving gears are all engaged with the first driving gear, the driving racks are all slidingly connected to the rack along the radial direction of the integrating sphere, the driving racks and the second driving gears are engaged one by one, the driving cylinders are one by one installed on the driving racks, the output end of the driving cylinder is fixedly connected with the mounting strip, and the moving direction of the output end of the driving cylinder is the vertical direction.

[0025] By adopting the technical scheme, the second driving motor drives the first driving gear to rotate, the first driving gear drives multiple second driving gears to rotate simultaneously, the second driving gears drive corresponding driving racks to move along the radial direction of the integrating sphere, the driving racks drive corresponding mounting bars to move along the radial direction of the integrating sphere through the driving cylinders, so that the multiple mounting bars move along the radial direction of the integrating sphere simultaneously, so as to adjust the distance between the multiple ultraviolet radiation illuminometers and the corresponding lenses. The driving cylinders are used to drive the mounting bars to move along the vertical direction, so that different ultraviolet radiation illuminometers are moved to the lenses in sequence.

[0026] Optionally, the light inlet hole is provided in plurality, and the ultraviolet radiation source is provided in plurality, and the ultraviolet radiation source corresponds to the light inlet hole one by one.

[0027] By adopting the technical scheme, before the calibration experiment starts, the ultraviolet radiation sources of different wave bands are installed on the integrating sphere, so that the experimenters do not need to replace the ultraviolet radiation sources of different wave bands during the calibration process, thereby improving the calibration efficiency.

[0028] Optionally, the integrating sphere is provided with multiple adapters, the adapter corresponds to the light inlet hole one by one, and the adapter is used to install the ultraviolet radiation source and can be opened and closed.

[0029] By adopting the technical scheme, multiple ultraviolet radiation sources of different wave bands are started and preheated, when one wave band of ultraviolet radiation source is used to provide light source, the adapter corresponding to the ultraviolet radiation source of the wave band is opened, and the adapters corresponding to the other ultraviolet radiation sources are closed, when the use of the ultraviolet radiation source of the wave band is completed, the adapter corresponding to the ultraviolet radiation source of the wave band is closed, and the adapter corresponding to the ultraviolet radiation source of another wave band is opened, thereby saving the preheating time of the ultraviolet radiation source and improving the calibration efficiency.

[0030] In a second aspect, the application provides an application method of the ultraviolet radiation illuminometer measuring device, which comprises the following steps:

[0031] S1, multiple ultraviolet radiation illuminometer standard devices are fixed on one mounting bar through clamps, and multiple ultraviolet radiation illuminometers are fixed on other mounting bars through clamps;

[0032] S2, the ultraviolet radiation source is started to preheat;

[0033] S3, after preheating, the mounting bars are moved to the multiple ultraviolet radiation illuminometers and ultraviolet radiation illuminometer standard devices at the same height, the multiple ultraviolet radiation illuminometers and ultraviolet radiation illuminometer standard devices are aligned with the lenses one by one, the distance between the ultraviolet radiation illuminometers and the corresponding lenses is the experimental required distance, the multiple ultraviolet radiation illuminometers and ultraviolet radiation illuminometer standard devices measure the ultraviolet light emitted by the lenses, and the measurement data of the multiple ultraviolet radiation illuminometers and ultraviolet radiation illuminometer standard devices are collected;

[0034] S4, after the measurement, the plurality of installation bars move along the radial direction of the integrating sphere to adjust the distance between the ultraviolet radiation illuminometer, the ultraviolet radiation illuminometer standard and the lens, and record the measurement data of the plurality of ultraviolet radiation illuminometers and the ultraviolet radiation illuminometer standard again;

[0035] S5, repeat S3, S4 until the measurement times reach the required number of experiments, then compare the measurement data of the plurality of ultraviolet radiation illuminometers with the measurement data of the ultraviolet radiation illuminometer standard, and calibrate the plurality of ultraviolet radiation illuminometers according to the measurement data of the ultraviolet radiation illuminometer standard.

[0036] In summary, the present application includes at least one of the following beneficial effects:

[0037] 1. The ultraviolet radiation illuminometer measuring device can simultaneously calibrate a plurality of ultraviolet radiation illuminometers, thereby improving the calibration efficiency and improving the consistency and accuracy between the plurality of ultraviolet radiation illuminometers;

[0038] 2. The installation bar moves in the vertical direction to drive the ultraviolet radiation illuminometer to move in the vertical direction to align with the corresponding lens, when the ultraviolet radiation illuminometer moves to align with the corresponding lens, the first sealing ring and the second sealing ring move in the direction of approaching each other due to magnetic attraction, so that the first light shield and the second light shield are expanded and abut at the same time, so that one end of the light emitted by the lens and the corresponding ultraviolet radiation illuminometer are located inside a closed space, thereby reducing the influence of the light emitted by the lens on other ultraviolet radiation illuminometers;

[0039] 3. When the first sealing ring and the second sealing ring move in the direction of approaching each other, the first elastic member and the second elastic member deform when the first light shield and the second light shield abut. When the installation bar moves in the vertical direction, one first sealing ring and the second sealing ring are separated, the distance between the first sealing ring and the second sealing ring increases, and when the magnetic force between the first sealing ring and the second sealing ring is less than the elastic force of the deformation of the first elastic member and the second elastic member, the first elastic member and the second elastic member recover the deformation, so that the first sealing ring and the second sealing ring move in the direction of moving away from each other. BRIEF DESCRIPTION OF DRAWINGS

[0040] Figure 1 is a schematic diagram of the overall structure of the embodiment of the present application;

[0041] Figure 2 is a schematic diagram of the overall structure of the embodiment of the present application; Figure 1

[0042] Figure 3 is a schematic diagram of the overall structure of the embodiment of the present application; Figure 1

[0043] ​​Figure 4 is Figure 2 is

[0044] Explanation of reference signs: 2, frame; 3, integrating sphere; 4, light inlet hole; 5, light outlet hole; 6, adapter; 7, lens; 71, lens barrel; 72, first guide rail; 73, lens; 74, second driving member; 741, first driving motor; 742, screw rod; 8, first driving member; 81, second driving motor; 82, first driving gear; 83, second driving gear; 84, driving rack; 85, driving cylinder; 9, light shielding assembly; 91, second guide rail; 92, first sealing ring; 93, second sealing ring; 94, first light shielding cover; 95, second light shielding cover; 96, first elastic member; 97, second elastic member; 10, mounting strip; 11, ultraviolet radiation source; 12, ultraviolet radiation illuminometer; 13, clamp. DETAILED DESCRIPTION

[0045] When calibrating the ultraviolet radiation illuminometer 12, the ultraviolet radiation illuminometer 12 and the ultraviolet radiation illuminometer standard are required to measure the same ultraviolet radiation source 11 at different distances multiple times, then the ultraviolet radiation illuminometer 12 is calibrated according to the measurement result of the ultraviolet radiation illuminometer standard, and the ultraviolet radiation source 11 of different wave bands is required to calibrate the measurement performance of different wave bands of the ultraviolet radiation illuminometer 12.

[0046] The above description is made in combination with the accompanying drawings. Figures 1-4 The application is further described in detail.

[0047] The ultraviolet radiation illuminometer 12 measuring device and application method disclosed by the embodiments of the application are described with reference to the accompanying drawings. Figure 1 and Figure 2The ultraviolet radiation illuminometer 12 quantity device comprises a rack 2, an integrating sphere 3, a first driving part 8 and a plurality of mounting strips 10. The rack 2 is fixedly connected with the integrating sphere 3, the integrating sphere 3 is provided with a plurality of light inlet holes 4 and a plurality of light outlet holes 5 around an axis thereof, the plurality of light inlet holes 4 are of the same height, and the plurality of light outlet holes 5 are of the same height. A plurality of adapters 6 and a plurality of lenses 7 are mounted on the integrating sphere 3, the adapters 6 correspond to the light inlet holes 4 one by one, the adapters 6 can be opened and closed to control opening and closing of the light inlet holes 4, and the adapters 6 are used for mounting ultraviolet radiation sources 11. In the embodiment of the present application, the adapters 6 are a common technical means for those skilled in the art, and thus will not be described here. The lenses 7 correspond to the light outlet holes 5 one by one, so that light inside the integrating sphere 3 is emitted in turn through the light outlet holes 5 and the lenses 7. The plurality of mounting strips 10 are arranged around the integrating sphere 3, the mounting strips 10 can move along the vertical direction and the radial direction of the integrating sphere 3 in a horizontal plane, the mounting strips 10 are provided with a plurality of clamps 13 for clamping the ultraviolet radiation illuminometer 12 and the ultraviolet radiation illuminance standard device in the vertical direction, and the first driving part 8 is used for driving the plurality of mounting strips 10 to move simultaneously along the vertical direction and the radial direction of the integrating sphere 3 in the horizontal plane.

[0048] Firstly, the ultraviolet radiation sources 11 of different wave bands are mounted on the corresponding adapters 6, a plurality of ultraviolet radiation illuminance standard devices used for experiments are fixed on the same mounting strip 10 through the clamps 13, and a plurality of ultraviolet radiation illuminometers 12 are mounted on other mounting strips 10 in the vertical direction. During the experiment, the corresponding adapters 6 are opened, other adapters 6 are closed, and the first driving part 8 drives the mounting strips 10 to move in the vertical direction, so that the plurality of ultraviolet radiation illuminometers 12 and the ultraviolet radiation illuminance standard device at the same height are simultaneously moved to be aligned with the lenses 7, so that the plurality of ultraviolet radiation illuminometers 12 can simultaneously perform experiments, thereby improving the experimental efficiency. After one experiment is completed, the first driving part 8 drives the plurality of mounting strips 10 to move in the radial direction of the integrating sphere 3 in the horizontal plane, so that the ultraviolet radiation sources 11 do not need to be closed, and the next experiment can be performed, thereby reducing the time for preheating the ultraviolet radiation sources 11 during the experiment, improving the experimental efficiency, reducing the time for calibrating the ultraviolet radiation illuminometer 12, and improving the consistency and accuracy among the plurality of ultraviolet radiation illuminometers 12.

[0049] Before the calibration experiment starts, the ultraviolet radiation sources 11 of different wave bands are mounted on the integrating sphere 3, and the experimenters do not need to replace the ultraviolet radiation sources 11 of different wave bands during the calibration process, thereby improving the efficiency of calibrating the ultraviolet radiation illuminometer 12.

[0050] Reference Figure 2 and Figure 3The first driving member 8 comprises a second driving motor 81, a first driving gear 82, a plurality of second driving gears 83 and a plurality of driving racks 84. The second driving motor 81 is installed below the integrating sphere 3 and the output shaft of the second driving motor 81 is arranged in the vertical direction. The first driving gear 82 is coaxially fixedly connected to the output shaft of the second driving motor 81. The plurality of second driving gears 83 are arranged around the rotation axis of the first driving gear 82 and are rotatably connected to the rack 2. The second driving gears 83 are all in mesh with the first driving gear 82. The plurality of driving racks 84 are slidably connected to the rack 2 around the rotation axis of the first driving gear 82. The moving direction of the driving racks 84 is the radial direction of the integrating sphere 3 in the horizontal direction. The driving racks 84 are in mesh with the second driving gears 83 one by one. The driving cylinder 85 is fixedly connected to one end of the driving rack 84 away from the first driving gear 82. The output shaft of the driving cylinder 85 can move in the vertical direction. The output shaft of one driving cylinder 85 is fixedly connected to one mounting strip 10.

[0051] The first driving motor 741 drives the first driving gear 82 to rotate. The first driving gear 82 drives the driving rack 84 to move through the meshing relationship of the second driving gear 83. The driving rack 84 drives the mounting strip 10 to move in the radial direction of the integrating sphere 3 in the horizontal plane, so that the first driving member 8 can drive a plurality of mounting strips 10 to move simultaneously in the radial direction of the integrating sphere 3 in the horizontal plane. When different ultraviolet radiation illuminometers 12 or ultraviolet radiation illuminance standard devices are aligned with the lens 7, the height of the mounting strip 10 needs to be adjusted. The corresponding driving cylinder 85 can drive the mounting strip 10 to move in the vertical direction, so as to adjust the height of the ultraviolet radiation illuminometer 12 or the ultraviolet radiation illuminance standard device.

[0052] With reference to Figure 4 The lens 7 comprises a lens barrel 71, a first guide rail 72, a second driving member 74 and two lenses. The lens barrel 71 is arranged in the radial direction of the integrating sphere 3 and is fixedly connected to the integrating sphere 3. The first guide rail 72 is fixedly connected to the inner wall of the lens barrel 71 in the axial direction of the light exit hole 5. The two lenses are arranged inside the lens barrel 71 and are slidably connected to the first guide rail 72. The second driving member 74 comprises a first driving motor 741 and a screw rod 742. The screw rod 742 is arranged inside the lens barrel 71 and is arranged in parallel with the first guide rail 72. The screw rod 742 is provided with two thread segments with different rotation directions. One lens is threadedly connected to one thread segment, and the other lens is threadedly connected to the other thread segment.

[0053] The light of the light exit hole 5 is collected at the position required by the experiment after passing through the two lenses. When the first driving motor 741 drives the screw rod 742 to rotate, the two lenses can move towards each other or away from each other, so as to adjust the focal length of the lens 7 according to the experimental requirements.

[0054] With reference to Figure 4The ultraviolet radiation illuminometer 12 quantity device further comprises a light shielding assembly 9, the light shielding assembly 9 comprises a second guide rail 91, a first sealing ring 92 and a second sealing ring 93, the second guide rail 91 is arranged outside the lens barrel 71 along the length direction of the lens barrel 71 and is fixedly connected with the lens barrel 71, the first sealing ring 92 is slidably connected with the second guide rail 91, the first sealing ring 92 has magnetism, a first light shielding cover 94 is connected between the first sealing ring 92 and the integrating sphere 3, the first light shielding cover 94 is flexible and corrugated, the first light shielding cover 94 can be unfolded or folded along the length direction of the lens barrel 71, the lens barrel 71 is located inside the first light shielding cover 94, a first elastic member 96 is connected between the first sealing ring 92 and the second guide rail 91 support, the first elastic member 96 is a spring. The second sealing ring 93 is slidably connected with the mounting strip 10 along the length direction of the lens barrel 71, the second sealing ring 93 has magnetism, when the first sealing ring 92 and the second sealing ring 93 are close to each other, the first sealing ring 92 and the second sealing ring 93 are magnetically attracted to each other, a second light shielding cover 95 is connected between the second sealing ring 93 and the mounting strip 10, the second light shielding cover 95 is flexible and corrugated, the second light shielding cover 95 can be unfolded or folded along the length direction of the lens barrel 71, the clamp 13 is located inside the second light shielding cover 95, a second elastic member 97 is connected between the second sealing ring 93 and the mounting strip 10, the second elastic member 97 is a spring.

[0055] When the mounting strip 10 moves to the ultraviolet radiation illuminometer 12 or the ultraviolet radiation illuminometer standard device is aligned with the lens 7, the first sealing ring 92 and the second sealing ring 93 are magnetically attracted to each other, so that the first sealing ring 92 and the second sealing ring 93 move to each other in the direction of approaching each other and abut each other, so that the first light shielding cover 94 and the second light shielding cover 95 abut each other, at this time, the first elastic member 96 and the second elastic member 97 are deformed, thereby isolating the lens barrel 71 and the ultraviolet radiation illuminometer 12 or the ultraviolet radiation illuminometer standard device from the external environment, reducing the influence of light in the external environment on the measurement results of the ultraviolet radiation illuminometer 12 or the ultraviolet radiation illuminometer standard device, and reducing the influence of light emitted from the lens 7 on the measurement results of other ultraviolet radiation illuminometers 12 or ultraviolet radiation illuminometer standard devices, thereby improving the calibration accuracy of the ultraviolet radiation illuminometer 12.

[0056] When the mounting strip 10 moves again to replace the detected ultraviolet radiation illuminometer 12 or ultraviolet radiation illuminometer standard device, the first sealing ring 92 moves away from the second sealing ring 93, when the attractive force between the first sealing ring 92 and the second sealing ring 93 is less than the elastic force of the first elastic member 96 and the second elastic member 97, the first elastic member 96 drives the first sealing ring 92 to move in the direction of approaching the integrating sphere 3, and the second elastic member 97 drives the second sealing ring 93 to move in the direction of approaching the mounting strip 10, thereby resetting the first sealing ring 92 and the second sealing ring 93.

[0057] The application also discloses a method for using the ultraviolet radiation illuminometer 12 measuring device, which comprises the following steps:

[0058] S1, fixing a plurality of ultraviolet radiation illuminometer standard devices on one mounting strip 10 through clamps 13, fixing a plurality of ultraviolet radiation illuminometers 12 on other mounting strips 10 through clamps 13, and installing ultraviolet radiation sources 11 of different wave bands on corresponding adapters 6;

[0059] S2, simultaneously starting a plurality of ultraviolet radiation sources 11 for preheating, and opening the adapter 6 corresponding to the ultraviolet radiation source 11 of the detection wave band and closing other adapters 6;

[0060] S3, after preheating, moving the mounting strip 10 to the same height of a plurality of ultraviolet radiation illuminometers 12 and ultraviolet radiation illuminometer standard devices, aligning the ultraviolet radiation illuminometers 12 and the ultraviolet radiation illuminometer standard devices with corresponding lenses 7 and making the distance between the ultraviolet radiation illuminometers 12 and the ultraviolet radiation illuminometer standard devices and the corresponding lenses 7 meet the experimental requirements, so that the plurality of ultraviolet radiation illuminometers 12 and the ultraviolet radiation illuminometer standard devices measure the ultraviolet light emitted by the lens 7 and collect the measurement data of the plurality of ultraviolet radiation illuminometers 12 and the ultraviolet radiation illuminometer standard devices;

[0061] S4, after measurement, moving a plurality of mounting strips 10 along the radial direction of the integrating sphere 3 to adjust the distance between the ultraviolet radiation illuminometers 12 and the ultraviolet radiation illuminometer standard devices and the lens 7, and recording the measurement data of the plurality of ultraviolet radiation illuminometers 12 and the ultraviolet radiation illuminometer standard devices again;

[0062] S5, repeating S3 and S4 until the measurement times meet the experimental requirements, then comparing the measurement data of the plurality of ultraviolet radiation illuminometers 12 with the measurement data of the ultraviolet radiation illuminometer standard devices, and calibrating the measurement performance of the plurality of ultraviolet radiation illuminometers 12 of the wave band according to the measurement data of the ultraviolet radiation illuminometer standard devices;

[0063] S6, closing the ultraviolet radiation source 11 and the corresponding adapter 6 after measurement, and opening the adapter 6 corresponding to the ultraviolet radiation source 11 of another wave band;

[0064] S7, repeating the steps of S3, S4 and S5 to calibrate the measurement performance of another wave band of the ultraviolet radiation illuminometer 12.

[0065] The above are preferred embodiments of the application, which do not limit the protection scope of the application, therefore: any equivalent changes made according to the structure, shape and principle of the application should be covered within the protection scope of the application.

Claims

1. A UV radiometer (12) measuring device, characterized in that, include: A frame (2) is fixedly connected to an integrating sphere (3). The integrating sphere (3) has an inlet hole (4) and multiple outlet holes (5). The multiple outlet holes (5) are arranged along the circumference of the integrating sphere (3). An ultraviolet radiation source (11) is installed on the integrating sphere (3). The ultraviolet radiation source (11) corresponds to the inlet hole (4). The integrating sphere (3) is equipped with multiple lenses (7), and the light inside the integrating sphere (3) is emitted out of the integrating sphere (3) through the light outlet (5) and the lenses (7) in sequence. Multiple mounting strips (10) are provided, each corresponding to a light-emitting hole (5). The mounting strips (10) are slidably mounted on the frame (2). The moving direction of the mounting strips (10) is vertical and / or radial to the integrating sphere (3). The mounting strips (10) are arranged vertically. Multiple clamps (13) are mounted on the mounting strips (10) vertically. The clamps (13) are used to fix the ultraviolet irradiance meter (12) or the ultraviolet irradiance standard. When the mounting strip (10) moves vertically, the ultraviolet radiometer (12) on the mounting strip (10) aligns with the corresponding lens (7) in sequence and receives the light emitted from the lens (7). When the mounting strip (10) moves radially along the integrating sphere (3), the ultraviolet radiometer (12) on the mounting strip (10) moves toward and away from the corresponding light outlet (5). A first driving member (8) is used to drive the mounting strip (10) to move radially in the vertical direction and / or integrator sphere (3).

2. The ultraviolet radiometer (12) measuring device according to claim 1, characterized in that: The lens (7) includes a lens barrel (71), a first guide rail (72), and two lenses (73) slidably disposed on the first guide rail (72). The lens barrel (71) is fixedly connected to the integrating sphere (3). The length direction of the lens barrel (71) is arranged along the radial direction of the integrating sphere (3). The first guide rail (72) is arranged along the length direction of the lens barrel (71) and fixedly connected to the lens barrel (71). The lens barrel (71) is equipped with a second driving member (74). The second driving member (74) is used to drive the two lenses (73) to move towards each other and away from each other.

3. The ultraviolet radiometer (12) measuring device according to claim 2, characterized in that: The second driving component (74) includes a first driving motor (741) and a screw (742). The screw (742) is provided with two threaded segments with opposite directions of rotation. One threaded segment is threadedly connected to a lens (73), and the other threaded segment is threadedly connected to another lens (73). The output end of the first driving motor (741) is coaxially fixedly connected to the screw (742). The rotation axis of the output end of the first driving motor (741) is parallel to the length direction of the lens barrel (71).

4. The ultraviolet radiation meter (12) measuring device according to claim 2, characterized in that: The system includes multiple light-shielding components (9), each corresponding to a lens barrel (71). Each light-shielding component (9) includes a second guide rail (91), a first sealing ring (92), and a second sealing ring (93). Both the first sealing ring (92) and the second sealing ring (93) are magnetic. The second guide rail (91) is fixedly connected to the lens barrel (71) along its length. One end of the second guide rail (91) protrudes from the end of the lens barrel (71) away from the integrating sphere (3). The first sealing ring (92) is slidably connected to the second guide rail along its length. (91), a first light shield (94) is connected between the first sealing ring (92) and the lens barrel (71). The first light shield (94) is flexible and can be folded and unfolded along the length direction of the lens barrel (71). The second sealing ring (93) is slidably connected to the mounting strip (10) along the radial direction of the integrating sphere (3). A second light shield (95) is connected between the second sealing ring (93) and the mounting strip (10). The second light shield (95) is flexible and can be folded and unfolded along the radial direction of the integrating sphere (3). The ultraviolet radiation meter (12) is disposed inside the second light shield (95). When the first sealing ring (92) and the second sealing ring (93) are coaxial, the first sealing ring (92) and the second sealing ring (93) are magnetically attracted to each other and move towards each other, so that the first light shield (94) and the second light shield (95) come into contact.

5. The ultraviolet radiometer (12) measuring device according to claim 4, characterized in that: A first elastic element (96) is connected between the first sealing ring (92) and the second guide rail (91), and a second elastic element (97) is connected between the second sealing ring (93) and the mounting strip (10).

6. The ultraviolet radiometer (12) measuring device according to claim 1, characterized in that: The first driving component (8) includes a second driving motor (81), a first driving gear (82), multiple second driving gears (83), multiple driving racks (84), and multiple driving cylinders (85). The first driving gear (82) is rotatably connected to the frame (2), and the rotation axis of the first driving gear (82) is arranged in the vertical direction. The output end of the second driving motor (81) is coaxially fixedly connected to the first driving gear (82), and the rotation axis of the second driving motor (81) is arranged in the vertical direction. The multiple second driving gears (83) The first drive gear (82) is arranged around the second drive gear (83), and the second drive gear (83) meshes with the first drive gear (82). The drive rack (84) is slidably connected to the frame (2) along the radial direction of the integrating sphere (3). The drive rack (84) and the second drive gear (83) mesh one-to-one. The drive cylinder (85) is installed one-to-one on the drive rack (84). The output end of the drive cylinder (85) is fixedly connected to the mounting strip (10). The moving direction of the output end of the drive cylinder (85) is vertical.

7. The ultraviolet radiation meter (12) measuring device according to claim 1, characterized in that: Multiple light inlets (4) are provided, and multiple ultraviolet radiation sources (11) are provided, with each ultraviolet radiation source (11) corresponding to a light inlet (4).

8. The ultraviolet radiation meter (12) measuring device according to claim 7, characterized in that: The integrating sphere (3) is equipped with multiple adapters (6), each adapter (6) corresponding to one of the light inlet holes (4). The adapters (6) are used to install ultraviolet radiation sources (11), and the adapters (6) can be opened and closed.

9. A method for applying an ultraviolet radiometer (12) measuring device, using an ultraviolet radiometer (12) measuring device as claimed in any one of claims 1-8, characterized in that, Includes the following steps: S1. Fix multiple ultraviolet radiation standards to a mounting strip (10) using clamps (13), and fix multiple ultraviolet radiation meters (12) to other mounting strips (10) using clamps (13); S2. Start the ultraviolet radiation source (11) for preheating; S3. After preheating, the mounting strip (10) is moved to align the multiple ultraviolet radiometers (12) and ultraviolet radiometer standards at the same height with the lens (7) one by one, and the distance between the ultraviolet radiometers (12) and ultraviolet radiometer standards and the corresponding lens (7) is the distance required by the experiment, so that the multiple ultraviolet radiometers (12) and ultraviolet radiometer standards measure the ultraviolet light emitted by the lens (7) and collect the measurement data of the multiple ultraviolet radiometers (12) and ultraviolet radiometer standards. S4. After the measurement is completed, multiple mounting strips (10) are moved radially along the integrating sphere (3) to adjust the distance between the ultraviolet irradiance meter (12) and the ultraviolet irradiance standard and the lens (7), and the measurement data of multiple ultraviolet irradiance meters (12) and the ultraviolet irradiance standard are recorded again. S5. Repeat S3 and S4 until the number of measurements reaches the experimental requirement. Then compare the measurement data of multiple UV irradiance meters (12) with the measurement data of the UV irradiance standard, and calibrate multiple UV irradiance meters (12) according to the measurement data of the UV irradiance standard.

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