CN205228440U - Range finding length measuring device is markd to optics - Google Patents
Range finding length measuring device is markd to optics Download PDFInfo
- Publication number
- CN205228440U CN205228440U CN201521043833.2U CN201521043833U CN205228440U CN 205228440 U CN205228440 U CN 205228440U CN 201521043833 U CN201521043833 U CN 201521043833U CN 205228440 U CN205228440 U CN 205228440U
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- China
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- range finding
- testee
- erection column
- cross curve
- bracing frame
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Abstract
The utility model provides a range finding length measuring device is markd to optics contains support frame, pointolite laser emitter, a plurality of cross curve laser emitter, pointolite laser emitter and cross curve laser emitter all install on the support frame, the light and the light that pointolite laser emitter launches of the cross point of cross curve laser emitter transmission are parallel to each other, each cross curve laser emitter's light -emitting subtended angle diverse. The utility model discloses when using, with light exposure to the testee, facula that the reuse area divides calibration's telescope to survey the testee and formed by laser irradiation on the object through the scale measurement light spot interval of graticule in the telescope, calculates the size of testee and the distance between testee and the laser emitter from this. The utility model has the advantages that: can measure the distance between measured object and the measuring point, the length of measured object, high equidimension and testee and direction of measurement's contained angle.
Description
Technical field
The utility model relates to field of optical measurements, is specifically related to optical ranging and surveys long field.
Background technology
The equipment of current energy telemeasurement distance, mainly contains laser range finder and telescopic range finder.The former travels to and fro between the time of measuring equipment and testee by measuring light, then the light velocity applied in known air is to calculate measuring distance; The latter is by the graticule of mounting strap scale in telescope, and the scale size that the size of the familiar object arrived according to the observation and the image in telescope occupy carrys out estimated distance in proportion, also can estimate height or the length dimension of other objects observed simultaneously.Because laser range finder needs to receive the light reflected, so testee surface needs substantially vertical with the light sent when measuring, and will there be certain reflective function on its surface.Which limits the convenience of its usable range and operation.Telescopic range finder (range-finding telescope) needs the size of an estimation object, and do equal proportion calculate, actual can not Measurement accuracy distance.Patent 201420808695.1 discloses a kind of measuring equipment, and it adopts the directional light calibration measurements object of two bundle fixed ranges, and calculates testee according to the ratio of testee in measurement image and spot distance.Adopt the directional light calibration measurements object of two bundle fixed ranges and the method measuring object can not measure the distance of measured object and measurement point, and measured deviation is larger when testee and direction of measurement out of plumb.
Utility model content
The purpose of this utility model is that to solve deviation when optical ranging is surveyed long comparatively large, or has optionally problem to range finding subject matter.
The utility model proposes a kind of optical calibrating range finding measuring motion, comprise bracing frame, pointolite generating laser, some cross curve generating lasers, described pointolite generating laser and cross curve generating laser are all installed on bracing frame; The light of right-angled intersection point and the light of pointolite laser transmitter projects of described cross curve laser transmitter projects are parallel to each other, and the bright dipping subtended angle of each cross curve generating laser is different.
Further, the frame of support frame as described above, as cuboid, parallelly on bracing frame is provided with some erection columns, and the post heart line of each erection column is in same plane.
Further, described bracing frame dorsal part is also provided with rule, and the meter full scale of rule is not less than the post heart line scope of the erection column at bracing frame two ends.
Further, the zero graduation line of the rule of support frame as described above dorsal part aligns with the post heart line of the erection column of bracing frame one end.
Further, each erection column corresponding is also provided with some groups of adjustment holes, and each group adjustment hole is two, is located at the upper end of corresponding erection column sidewall and the middle part of erection column sidewall respectively.
Further, the frame body of support frame as described above is provided with connecting hole or the link slot of exterior part.
Further, the lower end of each erection column described has installation via hole, and described installation via hole is provided with the screw of size coupling at the frame body correspondence position of bracing frame.
The utility model in use, by the light source irradiation of laser transmitter projects on testee, the horizontal line of the cross hot spot that testee is irradiated by cross curve generating laser must be parallel to each other with by profile section, observe testee by suitable enlargement factor and with the telescope of graduation and on object, irradiated the hot spot formed by laser again, or irradiated with the camera of suitable focal length shooting testee and surperficial subscript thereof the hot spot formed by laser, then spot separation is measured by the scale on graticule in telescope, or directly measure without the spot separation on the photo of editor's distortion, the size of testee and the distance between testee and generating laser is calculated again by corresponding computing method, for clearly stating computing method and formula, definition: the hot spot distance of the venter of relicle that cross curve laser transmitter projects end irradiates on testee to it is F, the venter of relicle spacing that the cross curve generating laser of the light that the selected pointolite generating laser measured sends and measurement sends is L, the bright dipping subtended angle of cross curve generating laser is 2*A, the angle on the vertical plane that the venter of relicle light measured and pointolite generating laser emit beam and testee surface is B, through telescopical graticule scale or by without editor's distortion photo directly measures: the irradiation spot separation that testee is of a size of H, venter of relicle and pointolite is a, the spacing of cross curve left end venter of relicle hot spot is b, cross curve right-hand member is c to the spacing of venter of relicle hot spot, described computing method are as follows:
1. when the cross intersection point light beam that pointolite generating laser or the cross curve generating laser of selected measurement send and testee surface are basic vertical:
The physical size of testee is: L*H/a;
Cross curve left end to the measured object physical size of venter of relicle hot spot is: L*b/a;
The hot spot actual range of the venter of relicle that cross curve laser transmitter projects end irradiates on testee to it is F=(L*b/a) * ctgA;
2. the cross intersection point light beam sent when pointolite generating laser or the cross curve generating laser of selected measurement and testee surface out of plumb, but when there is certain included angle B on its vertical plane and testee surface:
Included angle B can be drawn by c/b=tgA* (cosB+sinB*tg (A+B)) * (sinB+cosB/tgA) formulae discovery; The physical size of testee is: (L*H/a)/cosB;
Cross curve left end to the measured object physical size of venter of relicle hot spot is: (L*b/a)/cosB;
The hot spot actual range of the venter of relicle that cross curve laser transmitter projects end irradiates on testee to it is F=(L*b/a) * (ctgA+tgB).
The beneficial effects of the utility model are:
(1) can not only measure the distance between measured object and measurement point, the angle of the length of measured object, highly equidimension and testee and direction of measurement can also be measured simultaneously.
(2) have employed the light beam of determining spacing and determine that the transmitted beam of launching subtended angle is irradiated testee, demarcated, make measurement result more accurate.
(3) bracing frame has rule, very convenient for the actual pitch read between parallel light spots.
(4) the fixing threaded hole that bracing frame and erection column match setting is convenient to dismantle, change and maintenance to laser head.
Accompanying drawing explanation
Accompanying drawing 1 is structural representation of the present utility model.
Accompanying drawing 2 is rear view of the present utility model.
Accompanying drawing 3 is forward sight partial enlarged drawing of the present utility model.
Accompanying drawing 4 is backplan of the present utility model.
Light path schematic diagram when accompanying drawing 5 is parallel rays and the testee surface vertical case of cross intersection point and pointolite.
Light path schematic diagram when accompanying drawing 6 is parallel rays and the testee surface out of plumb of cross intersection point and pointolite.
Embodiment
Below in conjunction with embodiment and accompanying drawing, the utility model is further elaborated.
As shown in Figure 1, Figure 2, Figure 3, Figure 4, a kind of optical calibrating range finding measuring motion, comprise bracing frame, the frame body 100 of bracing frame is cuboid, parallel on bracing frame some erection columns are installed, the post heart line of each erection column is in same plane, and described erection column is followed successively by the first erection column 200, second erection column 300, the 3rd erection column 400 and the 4th erection column 500; In figure, be equipped with in the first erection column 200 in pointolite generating laser 600, second erection column 300, the 3rd erection column 400, the 4th erection column 500 and cross curve generating laser is all housed, the bright dipping subtended angle of each cross curve generating laser is different; The light of right-angled intersection point and the light of pointolite laser transmitter projects of described cross curve laser transmitter projects are parallel to each other; Between the post heart line of the first erection column 200 to the 4th erection column 500, be also provided with rule 1000 in bracing frame dorsal part, the zero graduation line of rule 1000 aligns with the post heart line of the 4th erection column 500; Each erection column corresponding is also provided with some groups of adjustment holes 900, each group adjustment hole is two, be located at the upper end of corresponding erection column sidewall and the middle part of erection column sidewall respectively, adjusting bolt can be connected at adjustment hole, can to adjust the position of generating laser with fixed laser transmitter, prevent it from tilting; The lower end of each erection column described has installs via hole 800, described installation via hole is provided with the screw 1100 of size coupling at the frame body correspondence position of bracing frame, can with it the frame mating screw and to be fixed on by erection column bracing frame by installing via hole 800 and screw 1100; The frame body of bracing frame is also provided with the connecting hole 700 of exterior part, can be installed the equipment of camera or other photo imaging by connecting hole.
As Fig. 5, shown in Fig. 6, the utility model in use, by the light source irradiation of laser transmitter projects on testee, the horizontal line of the cross hot spot that testee is irradiated by cross curve generating laser must be parallel to each other with by profile section, observe testee by suitable enlargement factor and with the telescope of graduation and on object, irradiated the hot spot formed by laser again, or irradiated with the camera of suitable focal length shooting testee and surperficial subscript thereof the hot spot formed by laser, then spot separation is measured by the scale on graticule in telescope, or directly measure without the spot separation on the photo of editor's distortion, the size of testee and the distance between testee and generating laser is calculated again by corresponding computing method, for clearly stating computing method and formula, definition: the hot spot O1-M segment distance of the venter of relicle that cross curve laser transmitter projects end irradiates on testee to it is F, the venter of relicle O1-O2 certain distance that the cross curve generating laser of the light that the selected pointolite generating laser measured sends and measurement sends is L, the bright dipping subtended angle of cross curve generating laser is 2*A, the angle on the vertical plane that the venter of relicle light measured and pointolite generating laser emit beam and testee surface is B, through telescopical graticule scale or by without editor's distortion photo directly measures: the irradiation hot spot M-N certain distance that testee is of a size of H, venter of relicle and pointolite is a, cross curve left end is b to the P-M certain distance of venter of relicle hot spot, cross curve right-hand member is c to the M-Q certain distance of venter of relicle hot spot, described computing method are as follows:
1. when the cross intersection point light beam that pointolite generating laser or the cross curve generating laser of selected measurement send and testee surface are basic vertical:
The physical size of testee is: L*H/a;
Cross curve left end to the measured object physical size of venter of relicle hot spot is: L*b/a;
The hot spot actual range of the venter of relicle that cross curve laser transmitter projects end irradiates on testee to it is F=(L*b/a) * ctgA;
2. the cross intersection point light beam sent when pointolite generating laser or the cross curve generating laser of selected measurement and testee surface out of plumb, but its vertical plane and testee surface are when having certain included angle B, owing to being approximately projection size from telescopical graticule or the P-M section directly recorded from photo and M-N section size in remote situation, the three-dimensional scenic with depth is also imaged onto in a plane, longitudinal size is compressed to zero, that is to say and from telescope, see that P-M section spot size is equal with P-M1 section size at measurement light source place, M-N section spot size is also equal with M-N1 section size, therefore, M-N1 section size is equal with the ratio of P-M section size with M-N section size with the ratio of P-M1 section size, included angle B can pass through formula:
C/b=tgA* (cosB+sinB*tg (A+B)) * (sinB+cosB/tgA) formulae discovery draws; The physical size of testee is: (L*H/a)/cosB;
Cross curve left end to the measured object physical size of venter of relicle hot spot is: (L*b/a)/cosB;
The hot spot actual range of the venter of relicle that cross curve laser transmitter projects end irradiates on testee to it is F=(L*b/a) * (ctgA+tgB).
During actual use, also can measure the testee on vertical direction as stated above, only longitudinal subtended angle 2*A2 of cross curve need be replaced horizontal subtended angle 2*A; In addition, owing to having the cross curve light source of different subtended angle, coupling light source can be selected easily and fast to measure according to testee size when actual measurement.
Above; be only the utility model preferably embodiment, but protection domain of the present utility model is not limited thereto, all within spirit of the present utility model and principle; any amendment of doing, equivalent replacement, improvement etc., all should be included within protection domain of the present utility model.
Claims (9)
1. an optical calibrating range finding measuring motion, is characterized in that: comprise bracing frame, pointolite generating laser, some cross curve generating lasers, described pointolite generating laser and cross curve generating laser are all installed on bracing frame; The light of right-angled intersection point and the light of pointolite laser transmitter projects of described cross curve laser transmitter projects are parallel to each other, and the bright dipping subtended angle of each cross curve generating laser is different.
2. a kind of optical calibrating range finding measuring motion according to claim 1, is characterized in that: the frame of support frame as described above, as cuboid, parallelly on bracing frame is provided with some erection columns, and the post heart line of each erection column is in same plane.
3. a kind of optical calibrating range finding measuring motion according to claim 2, it is characterized in that: described bracing frame dorsal part is also provided with rule, the meter full scale of rule is not less than the post heart line scope of the erection column at bracing frame two ends.
4. a kind of optical calibrating range finding measuring motion according to claim 3, is characterized in that: the zero graduation line of the rule of support frame as described above dorsal part aligns with the post heart line of the erection column of bracing frame one end.
5. a kind of optical calibrating range finding measuring motion according to claim 2,3 or 4, it is characterized in that: each erection column corresponding is also provided with some groups of adjustment holes, each group adjustment hole is two, is located at the upper end of corresponding erection column sidewall and the middle part of erection column sidewall respectively.
6. a kind of optical calibrating range finding measuring motion according to claim 1,2,3 or 4, is characterized in that: the frame body of support frame as described above is provided with connecting hole or the link slot of exterior part.
7. a kind of optical calibrating range finding measuring motion according to claim 2,3 or 4, it is characterized in that: the lower end of each erection column described has installation via hole, described installation via hole is provided with the screw of size coupling at the frame body correspondence position of bracing frame.
8. a kind of optical calibrating range finding measuring motion according to claim 5, it is characterized in that: the lower end of each erection column described has installation via hole, described installation via hole is provided with the screw of size coupling at the frame body correspondence position of bracing frame.
9. a kind of optical calibrating range finding measuring motion according to claim 5, is characterized in that: the frame body of support frame as described above is provided with connecting hole or the link slot of exterior part.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201521043833.2U CN205228440U (en) | 2015-12-13 | 2015-12-13 | Range finding length measuring device is markd to optics |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201521043833.2U CN205228440U (en) | 2015-12-13 | 2015-12-13 | Range finding length measuring device is markd to optics |
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| Publication Number | Publication Date |
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| CN205228440U true CN205228440U (en) | 2016-05-11 |
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| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN201521043833.2U Expired - Fee Related CN205228440U (en) | 2015-12-13 | 2015-12-13 | Range finding length measuring device is markd to optics |
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Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN105403194A (en) * | 2015-12-13 | 2016-03-16 | 重庆桑耐美光电科技有限公司 | Optical calibration distance measuring and length measuring device and distance measuring and length measuring method |
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2015
- 2015-12-13 CN CN201521043833.2U patent/CN205228440U/en not_active Expired - Fee Related
Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN105403194A (en) * | 2015-12-13 | 2016-03-16 | 重庆桑耐美光电科技有限公司 | Optical calibration distance measuring and length measuring device and distance measuring and length measuring method |
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Legal Events
| Date | Code | Title | Description |
|---|---|---|---|
| C14 | Grant of patent or utility model | ||
| GR01 | Patent grant | ||
| CF01 | Termination of patent right due to non-payment of annual fee | ||
| CF01 | Termination of patent right due to non-payment of annual fee |
Granted publication date: 20160511 Termination date: 20161213 |