CN201166604Y - System for measuring optical fibre transmission type defused reflection plate spectrum corner reflection characteristics - Google Patents
System for measuring optical fibre transmission type defused reflection plate spectrum corner reflection characteristics Download PDFInfo
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- CN201166604Y CN201166604Y CNU200720191089XU CN200720191089U CN201166604Y CN 201166604 Y CN201166604 Y CN 201166604Y CN U200720191089X U CNU200720191089X U CN U200720191089XU CN 200720191089 U CN200720191089 U CN 200720191089U CN 201166604 Y CN201166604 Y CN 201166604Y
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Abstract
The utility model relates to a measuring system of the spectral angle reflection characteristic of an optical fiber transmission type diffuse reflection plate, which comprises an aligning light source which is horizontally arranged, a first turn-table which is installed on an experiment table, a second turn-table which is fixed on the first turn-table, and a third turn-table which is installed on the second turn-table, wherein a sample support is composed of a supporting rod and a sample mounting plate, one end of the supporting rod is fixed on the third turn-table, the other end is used for fixing the sample mounting plate, a collection lens is fixed in a lens cone, one end of an optical fiber beam is arranged on the position of the focal point of the collection lens, the other end is arranged on the position of an incident narrow slit of a monochrometer which is arranged on the experiment platform and is controlled by a computer, and measuring signals are received by a photodetector. The spectrum curve of a reflected light of a diffuse reflection plate of a certain incidence angle can be obtained through the wavelength-scanning of the photodetector, and the measurement of the spectral intensity of the reflected light of different incidence angles of the diffuse reflection plate can be completed through orderly rotating the first turn-table and the second turn-table, and the angle reflection characteristic value of the diffuse reflection plate can be obtained after being processed.
Description
Technical field
The utility model relates to spectral instrument radiation calibration field, particularly relates to the measuring system that is applied to the diffuse reflector spectrum corner reflection characteristic of calibration usefulness on the spatial spectral instrument star.
Background technology
Diffuse reflector is the important optical element in the spectral instrument radiation calibration.Particularly ultraviolet on satellite and visible waveband adopt diffuse reflector with stable light source more, as sunshine, introduce in the light path of spectral instrument spectral instrument is carried out radiation calibration, and the situation of change of monitoring spectral instrument is used for the calibration measurement result.Consider the motion of the sun on ecliptic throughout the year, in continuous variation, therefore, the measurement of diffuse reflector spectrum corner reflection characteristic is the importance to ultraviolet and the spaceborne instrument calibration of visible waveband to sunshine to the irradiating angle of diffuse reflector on the star.
Present diffuse reflector spectrum corner reflection characteristic measuring device can be divided into two classes:
One class be after light source is become directional light direct irradiation on the diffuse reflector that is installed on the bidimensional turntable, utilization has the reflected light of the detector measurement diffuse reflector of interference filter, rotate the bidimensional turntable, can obtain the diffuse reflector corner reflection rate characteristic of interference filter transmission peak wavelength.The advantage of this device is simple in structure, and stray light is less; Shortcoming is to measure the restriction that wavelength is subjected to interference filter centre of homology wavelength, can only carry out the measurement of single spectral wavelength diffuse reflector corner reflection characteristic at every turn.Even adopt a plurality of detectors also can only carry out the measurement of a few separate wavelengths, and this has also increased the weight of the weight of rotatable parts, makes measuring system become complicated.
For overcoming above-mentioned shortcoming, measuring system can be obtained than in the wide spectral range, the corner reflection characteristic of diffuse reflector, the another kind of diffuse reflector spectrum corner reflection characteristic measuring device that adopts is to focus on the light that continuous light source sends on the entrance slit of monochromator through condenser at present, the light beam split that monochromator sends continuous light source, be the monochromatic light of the spectral resolution that requires from the output of monochromator exit slit, this monochromatic light becomes directional light and is radiated on the diffuse reflector to be measured that is installed on the bidimensional turntable behind the collimation optics collimation, by the rotation of bidimensional turntable, can obtain the corner reflection characteristic of monochromator output wavelength diffuse reflector equally.The dispersion element of scanning monochromator can change the monochromator output wavelength, thereby can obtain to design the spectrum corner reflection characteristic of diffuse reflector in the spectral range.(list of references: E.Renotte, A.Novi, D.Labate, M.Melozzi, C.Giunti, R.Meynart, " Solar diffuser pre-flight calibration set-up " SPIE 1997, vol.2957, the Fig.3 of 355-372) advantage of this device is to have overcome the shortcoming that above-mentioned optical filter device can only carry out single wavelength measurement, can obtain the corner reflection characteristic than different wave length in the wide spectral range.Shortcoming is light source through beam split, repeatedly reflect and refraction becomes directional light and is radiated on the diffuse reflector, become very faint, must be to being radiated at the strict control of parasitic light on the diffuse reflector.This has increased the complicacy of system; Otherwise because the interference of external stray light will reduce measuring accuracy greatly.
Summary of the invention
The purpose of this utility model is: measure diffuse reflector spectrum corner reflection characteristic in the prior art for solving, utilize the interference filter method only can carry out the defective of single wavelength measurement, utilize the problem of the interference of stray light of monochromator splitting method with solution, thereby a kind of Optical Fiber Transmission formula diffuse reflector spectrum corner reflection characteristic measuring system Optical Fiber Transmission, that be made up of collimated light source, specimen holder, rotatable parts, optically focused parts, monochromator and photodetector that utilizes is provided.
The purpose of this utility model is achieved in that
The Optical Fiber Transmission formula diffuse reflector spectrum corner reflection characteristic measuring system that the utility model provides comprises that one is used to produce collimated light source, specimen holder, the rotatable parts of parallel beam, the optically focused parts 6 that are used for receiving scattered light, monochromator 8 and photodetector 9; It is characterized in that, also comprise support bar 4, sample installing plate 5, fibre bundle 7 and installing plate 10; Wherein,
Described collimated light source is made up of collimating mirror 2-1, deuterium lamp 2-2 and Power supply for deuterium lamp 2-3, and described deuterium lamp 2-2 is arranged on the opposite of the diffuse reflector to be measured on the specimen holder; Wherein said deuterium lamp 2-2 and described Power supply for deuterium lamp 2-3 are electrically connected, and described collimating mirror 2-1 is arranged on the light path of described deuterium lamp 2-2 output; Collimated light source lies in a horizontal plane on the test platform 11, its centre-height is consistent with diffuse reflector centre-height to be measured, guarantees that diffuse reflector to be measured is in the center of the parallel beam that collimated light source sends; The optical axis of collimated light source is perpendicular to the plane of 1 rotating shaft of first turntable and second turntable, 2 rotating shafts formation; In measuring process, collimated light source output direction of light is maintained fixed constant;
Described specimen holder is made up of support bar 4 and sample installing plate 5, and wherein support bar 4 is a cylinder, and an end is fixed on the 3rd turntable 3 central rotating shaft places, and the rotating shaft of the 3rd turntable 3 is by the center line of support bar 4; Fix a sample installing plate 5 that is used to install diffuse reflector to be measured on the other end of support bar 4; Front surface and the intersection point of first turntable rotating shaft and the second turntable rotating shaft center that be in to be measured diffuse reflector front surface of the rotating shaft that the design of specimen holder should guarantee the 3rd turntable by diffuse reflector to be measured;
Described rotatable parts are to be used to realize that by one first turntable 1, that diffuse reflector to be measured rotates relative to the one dimension from collimated light source parallel radiation light beam is used to realize that diffuse reflector to be measured forms relative to the 3rd turntable 3 that second turntable 2 and that rotates from another dimension of collimated light source parallel radiation light beam is used to set the reflection angle of diffuse reflector to be measured; Wherein, described first turntable 1 adopts the manual turntable of TS160A, is installed on the test platform; Described second turntable 2 adopts RSA100 type electrical turntable, and by step motor drive, this second turntable 2 is fixed on first turntable 1 by installing plate 10, and the rotating shaft of second turntable 2 is perpendicular to the rotating shaft of first turntable 1; Described the 3rd turntable 3 is installed on second turntable 2, and its rotating shaft is coaxial with the rotating shaft of second turntable 2;
Described optically focused parts 6 are made up of collector lens and lens barrel, and described lens barrel is a cylindrical shape, and the inner end by sample installing plate 5 of lens barrel is fixed with collector lens, and collector lens is the JGS1 quartz lens; Described optically focused parts 6 are fixed on second turntable 2, are driven by second turntable 2 and rotate, the center of the optical axis of optically focused parts 6 by diffuse reflector front surface to be measured and vertical with the rotating shaft of second turntable 2;
Described fibre bundle 7 is become by the quartzy optical fibre set of 50-60 bar, one end of these fibre bundle 7 circles is placed in optically focused parts 6 lens barrels, the focus place of collector lens, the fibre bundle 7 rectangular other ends be placed on monochromator 8 the entrance slit place, be close to the entrance slit of monochromator 8;
Described monochromator 8 is placed on the test platform by computer control, and described photodetector 9 adopts the R928 photomultipliers, be placed on the exit slit of monochromator 8 after, be close to the exit slit place, and be fixed on the monochromator 8; The diffuse reflector reflected light to be measured radiation that described fibre bundle 7 will receive is sent to the entrance slit of monochromator 8, the optical radiation that arrives entrance slit is after monochromator 8 beam split, receive, convert to electric signal by photodetector 9, by the length scanning of monochromator, can obtain the catoptrical curve of spectrum of a certain incident angle diffuse reflector.Finish measurement by the orderly rotation of first turntable and second turntable to the spectral reflectance light intensity of diffuse reflector different incidence angles.These measured values are the corner reflection characteristic value of diffuse reflector after treatment.
In above-mentioned technical scheme, for alleviating the weight of rotatable parts, the collector lens bore should be chosen as far as possible little but make photodetector can receive appropriate signals intensity, guarantees that detectable signal has suitable signal to noise ratio (S/N ratio).Described collector lens is the JGS1 quartz lens, and the focal length of collector lens generally chooses and make the catoptrical measurement of diffuse reflector to be measured visual field less than 1 °, guarantees that measuring system has enough angular resolutions or chooses according to the actual conditions of using.
In above-mentioned technical scheme, the diameter of each root optical fiber is φ 0.2mm in the described fibre bundle (7); Described fibre bundle 7 one ends are the circle of diameter phi 1.7mm; The other end is the rectangle of 0.76mm * 3mm.
In above-mentioned technical scheme, the TRAIX320 type monochromator that the French JY of described monochromator 8 employings company produces, focal length is 320mm, grating line is 1200g/mm, the operating wavelength range 200-1500nm of monochromator.
In above-mentioned technical scheme, described collimating mirror 2-1 adopts the JGS1 quartz lens, and maximum caliber is 100mm, focal length 250mm.
In above-mentioned technical scheme, the LD2000 type deuterium lamp that described deuterium lamp 2-2 adopts Japanese shore rime company to produce.
In above-mentioned technical scheme, the supporting power supply of LD2000 deuterium lamp that described Power supply for deuterium lamp 2-3 adopts Japanese shore rime company to produce.
In above-mentioned technical scheme, described photodetector 9 adopts the R928 photomultiplier.
Good effect of the present utility model: the utility model is owing to use the not collimated light source direct irradiation diffuse reflector of beam split, the optical radiation that is radiated at diffuse reflector decays without monochromator, the optical radiation that is radiated at diffuse reflector is stronger, has reduced the influence of parasitic light to measurement result; And adopting the optical fiber coupling, it is motionless that monochromator and detector are placed on the testing table, has only an end of fibre bundle to rotate with turntable, alleviated the weight of rotatable parts, makes wheelwork small-sized, light.This system not only realized spectrum corner reflection characteristic measurement, reduced the influence of parasitic light to measurement result, and because photodetector does not need rotation yet, compare with the interference filter chip measuring system that can only carry out single wavelength measurement, this system is also lighter.
Below in conjunction with the drawings and specific embodiments the utility model is described in detail, but not as to qualification of the present utility model.
Description of drawings
The composition synoptic diagram of Fig. 1 the utility model measuring system
Collimated light source in Fig. 2 the utility model measuring system is partly formed synoptic diagram
The 1----first turntable 2----second turntable 3----the 3rd turntable
4----support bar 5----sample installing plate 6----optically focused parts
7----fibre bundle 8----monochromator 9----photodetector
10---installing plate 11----test platform 2-1----collimating mirror
2-2----deuterium lamp 2-3 Power supply for deuterium lamp
Embodiment
The utility model as depicted in figs. 1 and 2.Native system is made up of bidimensional rotatable parts, specimen holder, optically focused parts 6, fibre bundle 7, monochromator 8, photodetector 9, installing plate 10 and collimated light source.The bidimensional rotation system comprises first turntable, 1, the second turntable, 2, the three turntables 3.Specimen holder is made up of support bar 4 and sample installing plate 5.Collimated light source is positioned at the vertical page of Fig. 1, does not mark in Fig. 1; It is formed as shown in Figure 2, comprises collimating mirror 2-1, deuterium lamp 2-2 and Power supply for deuterium lamp 2-3.
The bidimensional rotatable parts are used to realize that diffuse reflector to be measured rotates with respect to the bidimensional from collimated light source parallel radiation light beam and the setting of diffuse reflector reflection angle to be measured.Wherein, first turntable 1 adopts the manual turntable of TS160A, and the error of division is better than 2 ', be installed on the test platform, be used to realize that diffuse reflector to be measured rotates relative to the one dimension from collimated light source parallel radiation light beam, promptly incident angle is in the variation of α angular direction.
The 3rd turntable 3 is installed on second turntable 2, and its rotating shaft is coaxial with the rotating shaft of second turntable 2, is driven by second turntable 2 and rotates, and is used to set the reflection angle of diffuse reflector to be measured.The 3rd turntable does not rotate in measuring process, keeps diffuse reflector reflection angle to be measured to immobilize in measuring process.
Support bar 4 is a columniform bar, and the one end is fixed on the 3rd turntable 3, and the axis of support bar 4 is by the rotating shaft of the 3rd turntable 3; The other end of support bar 4 is used for fixing sample installing plate 5, and sample installing plate 5 is used to install diffuse reflector to be measured.The design of support bar 4 and sample installing plate 5 guarantees that intersection point that the rotating shaft of the 3rd turntable 3 is positioned at the front surface of diffuse reflector to be measured and 1 rotating shaft of first turntable and 2 rotating shafts of second turntable is in the center of diffuse reflector front surface to be measured.
The optically focused parts 6 that are used for receiving scattered light are fixed on second turntable 2, are driven by second turntable 2 and rotate.Optically focused parts 6 are made up of collector lens and lens barrel, the center of the optical axis of collector lens by diffuse reflector front surface to be measured and vertical with the rotating shaft of second turntable 2.The lens barrel of optically focused parts 6 is a cylinder, and the inner end by sample installing plate 5 of lens barrel is fixed with collector lens, and collector lens is the JGS1 quartz lens.Collector lens is used to assemble the reflected light of diffuse reflector to be measured, for alleviating the weight of rotatable parts, the bore of lens should be chosen as far as possible little but make photodetector 9 can receive appropriate signals intensity, guarantees that detectable signal has suitable signal to noise ratio (S/N ratio), in this example lens bore be taken as φ 25mm.The focal length of lens is generally chosen and is made the catoptrical measurement of diffuse reflector to be measured visual field less than 1 °, guarantees that measuring system has enough angular resolutions, also can choose according to actual operating position.Getting the focal length of lens in this example is 100mm.
The fibre bundle 7 of present embodiment, for example the diameter by each root optical fiber is φ 0.2mm, and by 60,55 or 50 quartzy optical fiber synthetic a branch of composition, an end of this fibre bundle 7 is the circle of diameter phi 1.7mm altogether, and the other end is the rectangle of 0.76mm * 3mm.One end of fibre bundle 7 circles is placed in optically focused parts 6 lens barrels, the focus place of collector lens, is used to receive the reflected light of the diffuse reflector to be measured that focuses on through collector lens.The fibre bundle 7 rectangular other ends be placed on monochromator 8 the entrance slit place, be close to the entrance slit of monochromator 8.The diffuse reflector reflected light to be measured radiation that fibre bundle 7 will receive is sent to the entrance slit of monochromator 8, and the optical radiation that arrives entrance slit receives, converts to electric signal by photodetector 9 after monochromator 8 beam split.
The TRAIX320 type monochromator that the French JY of monochromator 8 employings company produces, focal length is 320mm, grating line is 1200g/mm, the operating wavelength range 200-1500nm of monochromator.Monochromator is measured automatically by computer control, is placed on the test platform.The spectral resolution that measurement is selected for use is about 2nm.
After photodetector 9 is placed on the exit slit of monochromator 8, be close to the exit slit place, and be fixed on the monochromator 8; Photodetector 9 adopts the R928 photomultiplier, adopts the method for photon counting to measure.
One collimated light source that is used to produce parallel beam lies in a horizontal plane in test platform 11, its centre-height is consistent with diffuse reflector centre-height to be measured, guarantees that diffuse reflector to be measured is in the center of the parallel beam that collimated light source sends; The plane that the optical axis of collimated light source forms perpendicular to the rotating shaft of the rotating shaft of first turntable 1 and second turntable 2.In measuring process, collimated light source output direction of light is maintained fixed constant; Collimated light source comprises collimating mirror 2-1, deuterium lamp 2-2 and Power supply for deuterium lamp 2-3.Deuterium lamp 2-2 is lighted by Power supply for deuterium lamp 2-3, and the emission light beam of deuterium lamp 2-2 becomes parallel beam behind collimating mirror 2-1 collimation.Collimating mirror 2-1 adopts the JGS1 quartz lens, and maximum caliber is 100mm, focal length 250mm; The LD2000 type deuterium lamp that deuterium lamp 2-2 adopts Japanese shore rime company to produce, this light source has good stability, the drift of its radiation intensity less than 0.5%/hour; The supporting power supply of LD2000 deuterium lamp that Power supply for deuterium lamp 2-3 adopts Japanese shore rime company to produce.
During measurement, at first diffuse reflector to be measured is installed on the sample installing plate 5.Rotate the 3rd turntable 3 accommodation reflex angles and make it reach desired reflection angle (as 40 °), with 3 lockings of the 3rd turntable, guarantee that reflection angle is constant in measuring process after mixing up.Collimated light source shown in Figure 2 is placed perpendicular to the paper direction of Fig. 1, aimed at diffuse reflector to be measured.Rotating first turntable 1 and second turntable 2, to make incident angle be 0 °.
Open Power supply for deuterium lamp 2-3, light deuterium lamp 2-2.The optical radiation of deuterium lamp 2-2 becomes parallel beam behind collimating mirror 2-1 collimation, be radiated on the diffuse reflector to be measured that is installed on the sample installing plate 5.The folded light beam of diffuse reflector to be measured focuses on the end face of fibre bundle 7 through the collector lens of optically focused parts 6, fibre bundle 7 is sent to the folded light beam of diffuse reflector to be measured the entrance slit of monochromator 8, behind monochromator splitting, receive by photodetector 9, photodetector 9 converts light signal to electric signal and measures, length scanning by monochromator 8, can obtain incident angle and be the catoptrical curve of spectrum of diffuse reflector to be measured of 0 ° (α=0 °, β=0 °).Rotate first turntable 1 and second turntable 2, can obtain different incidence angles (α, β) curve of diffuse reflector reflected light spectral reflectance light intensity to be measured.These measured values can provide the spectrum corner reflection characteristic of diffuse reflector to be measured after normalization.
Through verification experimental verification, this system can satisfy the designing requirement that is applied to calibrate on the spatial spectral instrument star with diffuse reflector spectrum corner reflection feature measurement.After an embodiment in addition adopts the xenon source of 150W, measure wavelength coverage and can expand to visible and near-infrared band.
Certainly; the utility model also can have other various embodiments; under the situation that does not deviate from the utility model spirit and essence thereof; those of ordinary skill in the art work as can make various corresponding changes and modification according to the utility model, but these corresponding changes and distortion all should belong to the protection domain of the appended claim of the utility model.
Claims (8)
1. an Optical Fiber Transmission formula diffuse reflector spectrum corner reflection characteristic measuring system comprises collimated light source, specimen holder, rotatable parts, optically focused parts (6), monochromator (8) and photodetector (9); It is characterized in that, also comprise support bar (4), sample installing plate (5), fibre bundle (7) and installing plate (10);
Described collimated light source is made up of collimating mirror (2-1), deuterium lamp (2-2) and Power supply for deuterium lamp (2-3); Wherein said deuterium lamp (2-2) and described Power supply for deuterium lamp (2-3) are electrically connected, and described collimating mirror (2-1) is arranged on the light path of described deuterium lamp (2-2) output;
Described specimen holder is made up of the sample installing plate (5) that support bar (4) and is used to install diffuse reflector to be measured, wherein support bar (4) is a cylinder, one end of described support bar (4) is fixed on the 3rd turntable (3), and the axis of support bar (4) is by the rotating shaft of the 3rd turntable (3); Fix described sample installing plate (5) on the other end of this support bar (4);
Described rotatable parts are to be used to realize that diffuse reflector to be measured rotates with respect to the bidimensional from collimated light source parallel radiation light beam and the bidimensional rotatable parts of the setting of diffuse reflector reflection angle to be measured, described bidimensional rotatable parts are used to realize that by one first turntable (1), that diffuse reflector to be measured rotates relative to the one dimension from collimated light source parallel radiation light beam is used to realize that diffuse reflector to be measured forms relative to the 3rd turntable (3) that second turntable (2) and that rotates from another dimension of collimated light source parallel radiation light beam is used to set the reflection angle of diffuse reflector to be measured; Wherein, described first turntable (1) adopts the manual turntable of TS160A, is installed on the test platform; Described second turntable (2) adopts RSA100 type electrical turntable, by step motor drive, this second turntable (2) is fixed on first turntable (1) by installing plate (10), makes the rotating shaft of the rotating shaft of second turntable (2) perpendicular to first turntable (1), and drives rotation by first turntable (1); Described the 3rd turntable (3) is installed on second turntable (2), and the 3rd turntable (3) rotating shaft is coaxial with the rotating shaft of second turntable (2), is driven by second turntable (2) and rotates;
Described optically focused parts (6) are made up of collector lens and lens barrel, and wherein said lens barrel is a cylinder, and the inner end by sample installing plate (5) of lens barrel is fixed with collector lens; Described optically focused parts (6) are fixed on second turntable (2), drive to be rotated the center of the optical axis of optically focused parts (6) by diffuse reflector front surface to be measured and vertical with the rotating shaft of second turntable (2) by second turntable (2);
Described fibre bundle (7) is become by the quartzy optical fibre set of 50-60 bar, one end of this fibre bundle (7) is placed on the focus place of the collector lens in the described lens barrel, the other end of fibre bundle (7) be placed on monochromator (8) the entrance slit place, be close to the entrance slit of monochromator (8);
Described monochromator (8) is placed on the test platform by computer control, after described photodetector (9) is placed on the exit slit of monochromator (8), be close to the exit slit place, and is fixed on the monochromator (8).
2. by the described Optical Fiber Transmission formula of claim 1 diffuse reflector spectrum corner reflection characteristic measuring system, it is characterized in that described fibre bundle (7) one ends are the circle of diameter phi 1.7mm; The other end is the rectangle of 0.76mm * 3mm.
3. by the described Optical Fiber Transmission formula of claim 1 diffuse reflector spectrum corner reflection characteristic measuring system, it is characterized in that, the TRAIX320 type monochromator that the French JY of described monochromator (8) employing company produces, focal length is 320mm, grating line is 1200g/mm, the operating wavelength range 200-1500nm of monochromator.
4. by the described Optical Fiber Transmission formula of claim 1 diffuse reflector spectrum corner reflection characteristic measuring system, it is characterized in that described collimating mirror (2-1) adopts the JGS1 quartz lens, maximum caliber is 100mm, focal length 250mm.
5. by the described Optical Fiber Transmission formula of claim 1 diffuse reflector spectrum corner reflection characteristic measuring system, it is characterized in that, described collector lens is the JGS1 quartz lens, and the focal length of collector lens makes the catoptrical measurement of diffuse reflector to be measured visual field less than 1 ° for choosing.
6. by the described Optical Fiber Transmission formula of claim 1 diffuse reflector spectrum corner reflection characteristic measuring system, it is characterized in that the LD2000 type deuterium lamp that the Japanese shore of described deuterium lamp (2-2) employing rime company produces.
7. by the described Optical Fiber Transmission formula of claim 1 diffuse reflector spectrum corner reflection characteristic measuring system, it is characterized in that the supporting power supply of LD2000 deuterium lamp that the Japanese shore of described Power supply for deuterium lamp (2-3) employing rime company produces.
8. by the described Optical Fiber Transmission formula of claim 1 diffuse reflector spectrum corner reflection characteristic measuring system, it is characterized in that described photodetector (9) adopts the R928 photomultiplier.
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| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CNU200720191089XU CN201166604Y (en) | 2007-12-29 | 2007-12-29 | System for measuring optical fibre transmission type defused reflection plate spectrum corner reflection characteristics |
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| CNU200720191089XU CN201166604Y (en) | 2007-12-29 | 2007-12-29 | System for measuring optical fibre transmission type defused reflection plate spectrum corner reflection characteristics |
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Cited By (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN102109378A (en) * | 2009-12-24 | 2011-06-29 | 鸿富锦精密工业（深圳）有限公司 | Spectrum measuring instrument |
| CN112763464A (en) * | 2020-12-18 | 2021-05-07 | 新绎健康科技有限公司 | Spectrum measurement system and method for biological delayed luminescence |
| CN113631908A (en) * | 2018-12-21 | 2021-11-09 | 纳米线科技公司 | Method, apparatus, system and device for mobile digital spatial profiling of pathological specimens |
-
2007
- 2007-12-29 CN CNU200720191089XU patent/CN201166604Y/en not_active Expired - Fee Related
Cited By (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN102109378A (en) * | 2009-12-24 | 2011-06-29 | 鸿富锦精密工业（深圳）有限公司 | Spectrum measuring instrument |
| CN113631908A (en) * | 2018-12-21 | 2021-11-09 | 纳米线科技公司 | Method, apparatus, system and device for mobile digital spatial profiling of pathological specimens |
| CN112763464A (en) * | 2020-12-18 | 2021-05-07 | 新绎健康科技有限公司 | Spectrum measurement system and method for biological delayed luminescence |
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Granted publication date: 20081217 Termination date: 20121229 |