CN204650290U - Unmanned plane pan-shot The Cloud Terrace in the finite space - Google Patents
Unmanned plane pan-shot The Cloud Terrace in the finite space Download PDFInfo
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- CN204650290U CN204650290U CN201520357300.5U CN201520357300U CN204650290U CN 204650290 U CN204650290 U CN 204650290U CN 201520357300 U CN201520357300 U CN 201520357300U CN 204650290 U CN204650290 U CN 204650290U
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Abstract
Unmanned plane pan-shot The Cloud Terrace in a kind of finite space, comprise the fan-shaped fixed support for being fixed on unmanned many giros fuselage, fan-shaped fixed support outer marginal circumference is provided with a pivot arm, rail moving pair is formed between pivot arm and fan-shaped fixed support outer marginal circumference, fan-shaped fixed support is provided with a steering wheel by steering wheel erecting frame, steering wheel rotation axis is coaxially installed with a pivot arm driving wheel, form rotating drive pair between this driving wheel and pivot arm, pivot arm is provided with camera by camera holder.The utility model can meet simultaneously: completely non-blind area shooting, meets legacy closely and pan-shot requirement in the finite space; Between each seat in the plane, space coincidence degree is good, and image mosaic accuracy is high; Camera or number of shots are not particularly limited; Fuselage weight is light, and volume is little, easily realizes finite space flight; Be applicable to the many giros of the existing overwhelming majority, obtain identical shooting effect (universality is by force this programme feature on many giros).
Description
Technical field
The utility model belongs to: architectural heritage digitizing, the design of unmanned plane The Cloud Terrace and technology for panoramic photography field.
Background technology
360 degree of full shots refer to that camera is in point of fixity rotary taking periphery 360*180 degree (horizontal 360-degree, vertical 180 degree) scenery distant view photograph, photo is after the process of panorama software, beholder can with human-computer interaction mode rotation process, by changing viewing angle (direction), producing and surrounding can look around, be in the sensation in its border.
Pan-shot development rapidly, becomes a type of virtual reality technology gradually.Comparing with moving horizontally, taking the visual field aloft openr, more scenery can be seen.Depopulated helicopter, unmanned many giros have been used to take aerial panoramic picture.
The modal style of shooting of depopulated helicopter mainly underlying The Cloud Terrace, installs one camera, relies on helicopter around the ability continuous rotation shooting of self hovering central rotation, is similar to ground tripod panorama shooting method.But there is limitation in helicopter pan-shot, namely camera can not freely be faced upward shooting, because seriously blocking of Helicopter Main rotor can be subject to, rotor comes into view and can cause shooting field so-called " exposing the false " problem, therefore, general appreciable maximum vertical angle is only 10-25 degree, be greater than the sky of this angle for shooting blind area, main dependence computing machine post-processed, utilize the sky picture separately purchased to fill blind area, the overhead part of panoramic pictures, and be put on the helicopter fuselage vestige occurred once in a while in shooting of slightly facing upward.Because sky variations in detail is less, be therefore easy to replace and not easily discover, as long as helicopter distance periphery atural object is far away, or have relative ceiling advantage, then this method is also feasible.Can find out that helicopter is suitable for nutation shooting equally from No. 201110392818.9 patents " method for makings based on 360 degree of aerial panoramic interactive roaming systems that depopulated helicopter is taken photo by plane ".Even if use the panorama shooting device that polyphaser combines, blocking of Helicopter Main rotor is still inevitably, such as " aerial 360 degree of distant view photograph filming apparatus " (201320135877.2) application for patent proposes and uses multiple camera composition blind-area-free panoramic shooting spherical arrangement, and attaches it to the aerial panorama of depopulated helicopter photographs.Due to fuselage, the blocking of rotor, certainly exist shooting blind area.Therefore this kind of shooting spherical device is generally only applicable to ground tripod or roof support etc. other blocks not serious occasion.
But when the fields such as building, cultural heritage, archaeology pan roaming achievement, often need shooting at close range object to show details, and periphery also has higher building, massif, steep cliff mostly, such as, take the grottoes etc. of the cliff painting on building beam column on engraving, colored drawing, steep cliff, vihara.The atural object now in surrounding environment with ceiling advantage must enter the first half of panorama.Rotor image and subject image overlap, then the method being difficult to use aforesaid later stage sky image to replace repairing obtains the complete panoramic picture without blind area of facing upward.
Many giros are emerging vertically taking off and landing flyer in recent years, according to rotor quantity and layout, it can be divided into the polytype as Fig. 1, the common ground of these types, also namely the feature of many giros compared with helicopter is that the rotor quantity of many giros increases, single paddle yardstick reduces, turning axle is to surrounding scattered distribution from middle position transition.Because this feature of many giros, laying of the task loads such as camera just becomes more flexible free, not only take downwards below rotor or fuselage, can also be same high with it between rotor, horizontal forward shooting, also can above fuselage framework, higher than the Plane of rotation of rotor to photographs.
Can find out that multiple camera triggers together in No. 201210377100.7 patents " 360 degree of blind-area-free panoramic video capture equipment based on regular polygon " and No. 201320135877.2 " aerial 360 degree of distant view photograph filming apparatus ", the panoramic picture obtaining each angle and cover can be taken simultaneously.
So whether camera can be divided into upper and lower two groups, at many giros upper and lower sides, two groups of camera shootings are directly installed respectively, obtain unscreened panoramic picture? the condition done like this is that camera must be installed away from fuselage and just can avoid rotor and block, but can cause multiple problem like this:
A () downside camera position is minimum, first can strike ground during landing.
B between the camera of () upper and lower side, position difference is excessive, when shooting at close range, this difference can cause being difficult to accurate splicing between hypograph, the photographic schemes of blind-area-free panoramic up and down that " the air-ground panoramic shooting of a kind of kite-airship and imaging device " (02294802.3) proposes installs a vertical tube in the inside of dirigible, and camera is placed respectively in upper and lower two ends.But dirigible oneself height 3-5 rice, camera upper-lower position difference is excessive, not easily splices successfully, and therefore the program is only applicable to atmospheric physics field, is absolutely not applicable to the legacy details shootings such as grottoes.On many giros, even if up and down the spacing of camera narrows down to tens centimeters, but only may have several meters due to object distance, also can be spliced into power by effect diagram picture, therefore for the shooting of the legacy finite space, this height difference still be can not ignore.
C () camera quantity is many, under the condition of identical image quality, integral device purchase cost is high, weight large, and the giro hang time of formed objects shortens.
In order to avoid rotor blocking camera lens, DJI company have developed the many giros of the liftable Inspire of cantilever.When cantilever rises, underlying camera can non-blockedly slightly be faced upward shooting, during cantilever decline for the protection of camera can not because of landing colliding surface.The program is not intended to pan-shot, and mainly for video capture, does not therefore arrange camera of facing upward.Even if install upside camera, the program is used for pan-shot and still there is following shortcoming:
A () complex structure, can only be applicable to many giros of " work " font plane.The many giros of the current overwhelming majority all cannot utilize this design.
B between the camera of () upper and lower side, still difference is excessive in position, the problem that when not solving the shooting of upper and lower camera, absolute altitude need be consistent.
C () is compared with fixed fuselage, the movable design of fuselage main structure considerably increases deadweight, and therefore giro many with other is compared, and this machine hang time obviously shortens, and payload capacity declines, and is difficult to carry multiple camera simultaneously.
D undercarriage is arranged on below rotor by (), the yardstick up and down of barrier is increased considerably, and the mutually confidential farther distance of being separated by of upper and lower sides just can avoid all shelters to rotor bottom undercarriage.
Utility model content
The utility model object overcomes prior art above shortcomings, a kind of novel aerial pan-shot The Cloud Terrace is provided---unmanned plane pan-shot The Cloud Terrace in the finite space, unmanned plane and tripod head equipment self blocking shooting can be avoided completely, spending (vertically) all directions 360 degree of (levels) * 180 can non-blind area shooting, can in low latitude each highly closely panorama show all kinds architectural heritage such as cliff painting, rock cave, tall and big ancient building (group).The advantage of this cradle head device is the many rotor unmanned aircrafts being applicable to current most of type, makes it to take above-mentioned full-view image.
Unmanned plane pan-shot The Cloud Terrace in the finite space that the utility model provides, comprise the fan-shaped fixed support for being fixed on unmanned aerial vehicle body, fan-shaped support bracket fastened outer marginal circumference is provided with a pivot arm, rail moving pair is formed between pivot arm and fan-shaped support bracket fastened outer marginal circumference, fan-shaped fixed support is provided with a steering wheel by steering wheel erecting frame, steering wheel rotation axis is coaxially installed with a pivot arm driving wheel, form rotating drive pair between this driving wheel and pivot arm, pivot arm is provided with camera by camera holder.
Described fan-shaped support bracket fastened fan-shaped central angle is 180 degree.Form between described driving wheel and pivot arm rotating drive pair for friction pulley drive pair or gear drive secondary.The two ends of described pivot arm are respectively provided with a pivot arm plug.Camera holder on described pivot arm is two, two camera holders is respectively provided with a camera, and one end of two camera holders is hinged on pivot arm respectively, and the other end is fixed together by angle adjustment screw and forms hinged camera holder.Opposite side relative with camera on described pivot arm is provided with a weight equalizer.
Advantage of the present utility model and good effect:
The following that the utility model scheme meets Panoramic Warping shooting in the architectural heritage finite space simultaneously requires:
A () completely non-blind area shooting, meets legacy closely and pan-shot requirement in the finite space.This programme, by the rotation of pivot arm on fan, makes camera successively peak and minimum point being in respectively correct is faced upward, in nutation shooting angle, avoid blocking of many giros, obtain the 360*180 degree panoramic picture of complete non-blind area.This programme completely solves the shooting restricted problem of facing upward existed in 201110392818.9 patented claims.
B the space coincidence degree between () each seat in the plane is good, image mosaic accuracy is high.The blow vent of barometric altimeter is fixed to the central authorities of hinged camera holder, make it consistent with camera place height, like this when pivot arm height change, still barometer corresponding adjustment lift size can be passed through, and then conditioner height degree, keep the shooting height of camera constant, the photo of upper and lower two groups of shootings can accurately be spliced.
C () is not particularly limited camera or number of shots.Standing procedure is the opposed camera of use two, and multiple camera also can be used to rotate continuous shooting action to avoid aircraft around vertical pivot.And patents such as " 360 degree of blind-area-free panoramic video capture equipment based on regular polygon ", be all use multiple camera could obtain the visual field, non-blind area.Under identical image quality conditions, this programme uses less camera, more cost-saving.
D () fuselage weight is the lightest, volume is minimum, easily realizes finite space flight.Camera quantity is few.Undercarriage size is little, lightweight, makes very little many giros also can carry this The Cloud Terrace like this, can adapt to the limited-space environment that spatial domain is narrow.
E () is applicable to the many giros of the existing overwhelming majority, obtain identical shooting effect.Mounting hole is had bottom fan, the upper surface of many giros center fuselage can be fixed on easily, multiple many giros such as existing four rotors, six rotors, eight rotors can be installed, the scheme of the Inspire many giros frame deflection therefore researched and developed with DJI company is compared, this The Cloud Terrace not only manufactures, it is simpler to install, most important advantage is that the universality applied is better, this The Cloud Terrace makes many giros that cannot pan at present also can realize shooting, and need not change self structure.
F () is noiseless to many giro flight.In The Cloud Terrace course of action, center of gravity remains unchanged, on the maintenance of many giros flight attitude and position without impact.
Accompanying drawing explanation
Fig. 1 is existing common many giros layout (drawing from DJI Products handbook).
Fig. 2 is the utility model pan-shot The Cloud Terrace elevation drawing (rotating arms horizontal state).
Fig. 3 is pan-shot The Cloud Terrace elevation drawing (on the downside of pivot arm one sideway swivel, camera shooting state).
Fig. 4 is pan-shot The Cloud Terrace elevation drawing (on the upside of the rotation of pivot arm opposite side, camera shooting state).
Fig. 5 is pan-shot The Cloud Terrace axonometric drawing (on the upside of the rotation of pivot arm opposite side, camera shooting state).
Fig. 6 is pan-shot The Cloud Terrace mounting vertical plane figure (camera, away from fuselage, is avoided rotor and blocked) on many giros.
Fig. 7 is that The Cloud Terrace installs top view (The Cloud Terrace pivot arm is in horizontality) on many giros.
Fig. 8 is the position adjustable undercarriage front view (FV) on many giros.
Fig. 9 is the position adjustable undercarriage outboard profile on many giros.
Figure 10 is pan-shot The Cloud Terrace sectional view.
Figure 11 is the hinged camera holder enlarged drawing on pan-shot The Cloud Terrace.
In figure, 1 fan-shaped fixed support, the 2 adjustable undercarriages in position, 3 steering wheels, 4 pivot arm driving wheels, 5 pivot arm plugs, 6 hinged camera holders, 7 cameras, 8 angle adjustment screws, 9 barometer snorkels, 10 pivot arms, 11 strip rubber layers, 12 weight equalizers (comprising battery etc.), 13 giro fuselages, 14 rotors, 15 rotor motors, 16 mounting holes, 17 steering wheel erecting frames, 18 barometric altimeters, 19 motor cantilevers, 20 undercarriage holding screws.
Embodiment
Embodiment,
1. unmanned plane pan-shot The Cloud Terrace in the finite space
As shown in Figures 2 to 7, in the finite space that the utility model provides, unmanned plane pan-shot The Cloud Terrace, comprises the fan-shaped fixed support 1 for being fixed on unmanned aerial vehicle body, and fan-shaped support bracket fastened fan-shaped central angle is 180 degree.Fan-shaped support bracket fastened outer marginal circumference is provided with a pivot arm 10, the two ends of pivot arm are respectively provided with a pivot arm plug 5, rail moving pair is formed between pivot arm and fan-shaped support bracket fastened outer marginal circumference, fan-shaped fixed support is provided with a steering wheel 3 by steering wheel erecting frame 17, steering wheel rotation axis is coaxially installed with a pivot arm driving wheel 4, rotating drive pair is formed between this driving wheel and pivot arm, described rotating drive pair can drive secondary (as this example) for friction pulley, or adopts gear drive secondary.Pivot arm is provided with camera 7 by camera holder.Camera holder on described pivot arm is two, two camera holders is respectively provided with a camera, and one end of two camera holders is hinged on pivot arm 10 respectively, and the other end is fixed together by angle adjustment screw 8 and forms hinged camera holder 6.
Opposite side relative with camera on described pivot arm is provided with a weight equalizer 12 (comprising battery etc.).
(1) pan-shot The Cloud Terrace.
The main body of pan-shot The Cloud Terrace is fan-shaped fixed support and pivot arm.Mounting hole 16 is had bottom fan-shaped fixed support, may be used for being fixed on (see Fig. 6,7,10) on many giros fuselage 13, have large-area lightening hole in the middle of fan-shaped fixed support, for alleviating own wt, fan-shaped fixed support top is that "T"-shaped cross section is to form semi-circular track.Pivot arm is similarly semicircle, its cross section is " C " shape of lying down, embrace in the "T"-shaped cross sectional rail of semicircle support, smear railway grease in the middle of both to ensure that pivot arm can smooth and easy slip on "T"-shaped track, below pivot arm, the rubber layer 11 of strip is equipped with in side, contact with the rubber layer on pivot arm driving wheel 4, for improving friction force.The rotation axis of pivot arm driving wheel is through fan-shaped support bracket fastened neutral gear, be connected with the steering wheel of another side, steering wheel fuselage is then arranged on fan-shaped fixed support by steering wheel support 17, and the rotation of pivot arm driving wheel can be moved along "T"-shaped semi-circular track by driven rotary arm thus.There is outstanding pivot arm plug 5 at the rubber layer two ends of pivot arm as spacing, prevent the left and right push pull maneuver of pivot arm driving wheel from causing pivot arm to exceed stroke.
Two opposed hinged camera holders 6 are housed in the outside of semicircle pivot arm one end, one of them camera holder width is slightly narrow, can inject in the slotted eye of another camera holder end, the basic intersection in 45 degree of oblique angles places, the cross section of two camera holders is horizontal through a degree of tightness angle adjustment screw 8, screw unclamps latter two camera holder and can micro-ly rotate, for finely tuning the angle of pitch (participation Figure 11) of two cameras.Two cameras 7 are opposed to be fixed on hinged camera holder 6, and the common upper and lower angle of visibility of miniature fisheye camera camera lens should be about 120 degree.There is the overlapping region, the visual field of about 30 degree between such camera, meet software automatic Mosaic image needs.Where necessary, also can finely tune the angle of pitch of camera or the camera lens visual field according to Obstacle Positions such as fuselage rotors.In addition, in the end of the intermediate triangle region internal fixtion barometer snorkel 9 of two cameras, barometer snorkel 9 other end suspends at ordinary times, when The Cloud Terrace is installed on many rotors, is connected with the barometric altimeter 18 on many rotors robot pilot.
The weight 12 close with two camera general assembly (TW)s can be fixed, such as radio receiver and supplying cell thereof, camera shutter control circuit etc. in the outside of the pivot arm other end.Steering wheel, camera shutter release cable are all connected with radio receiver according to public method known in this field.
This programme suggestion two, camera opposed, but also can be four opposed or more.Preferably the object of two cameras is the Duplication ensureing vertical direction, and the main multi-rotor aerocraft that leans on of the multi-angle of horizontal direction overlap shooting rotates around self axle, and in rotary course, camera multiexposure, multiple exposure has come.Such as, if install the camera lens that horizontal field of view is larger, or install more camera, four, six opposed cameras, then can the whole required photo of disposable shooting half celestial sphere, shooting process is shorter, does not need the rotation of many giros, but corresponding weight of equipment increases considerably.Otherwise then camera quantity or weight decline, and corresponding opposite side battery counterweight declines, and therefore can adapt to less, that dead weight capacity is less many giros and take in small space.Therefore two cameras are this programme optimal selection, but as actual needs, also can increase camera and install quantity on pivot arm.
(2) the adjustable undercarriage in position.
The original various undercarriage of many giros likely inapplicable The Cloud Terrace, such as can block the visual field of underlying shooting, or produce mechanical collision when The Cloud Terrace action, therefore where necessary, detachably change the special undercarriage (see Fig. 8, Fig. 9) in this programme into.This undercarriage be furnished with can degree of tightness regulate undercarriage holding screw 20, if unclamp screw, then can on motor arm from rotor motor to fuselage position move freely and lay, prerequisite is the line that its length can not exceed wing tip outside from downside camera lens to rotor, namely can not produce extra blocking to shooting.
2. panorama shooting method:
(1) prepare before taking off.
Pan-shot The Cloud Terrace is installed to the upper surface of many giros fuselage by fan-shaped fixed support, if desired original for many giros undercarriage is changed into the undercarriage in this programme.Barometer snorkel suspension end is connected (Fig. 6) with the blow vent of barometric altimeter, makes barometric altimeter can measure camera heights change in real time and be compensated by original fuselage robot control system(RCS).No matter the setting angle in addition by finely tuning camera makes in upside or downside shooting, the body parts such as rotor all can not enter among the camera lens visual field.After adjustment, steering wheel rotates to keep pivot arm to be in basic horizontal state (two ends are in roughly the same height), and unlikely over-tilting causes bumping against ground.
(2) shooting process.
Many giros take off and arrive expect camera site after, pivot arm driving wheel driven rotary arm is until stopped by plug, now make camera arrive minimum point, while camera shooting, the many giros of personnel control horizontally rotate half-turn, obtain the unobstructed panoramic picture of lower semisphere.Then pivot arm driving wheel driven rotary arm rotates 180 degree round about to the braking of opposite side plug, and camera is to fan-shaped support bracket fastened peak, and now many giros horizontally rotate half-turn around own central axis again, and camera carries out episphere shooting.Blow vent because of barometric altimeter is positioned near camera, moving up and down therefore with camera, and aircraft can adjust the camera heights change that oneself height causes to compensate pivot arm action automatically, maintains camera absolute altitude in shooting process constant as far as possible.
Camera is first in downside or first upside shooting does not affect end result, and therefore first upside shooting is also fine.
3) rear landing has been taken.
After the shooting of upper and lower side all completes, pivot arm, from upright state revolution about 90 degree, is restored to near-horizontal state, and now giro can use undercarriage to contact to earth safely landing.
Claims (6)
1. unmanned plane pan-shot The Cloud Terrace in a finite space, it is characterized in that this pan-shot The Cloud Terrace comprises the fan-shaped fixed support for being fixed on unmanned many giros fuselage, fan-shaped support bracket fastened outer marginal circumference is provided with a pivot arm, rail moving pair is formed between pivot arm and fan-shaped support bracket fastened outer marginal circumference, fan-shaped fixed support is provided with a steering wheel by steering wheel erecting frame, steering wheel rotation axis is coaxially installed with a pivot arm driving wheel, rotating drive pair is formed between this driving wheel and pivot arm, pivot arm is provided with camera by camera holder.
2. unmanned plane pan-shot The Cloud Terrace in the finite space according to claim 1, is characterized in that described fan-shaped support bracket fastened fan-shaped central angle is 180 degree.
3. unmanned plane pan-shot The Cloud Terrace in the finite space according to claim 1, the rotating drive that it is characterized in that forming between described driving wheel and pivot arm pair for friction pulley drive pair or gear drive secondary.
4. unmanned plane pan-shot The Cloud Terrace in the finite space according to any one of claim 1 to 3, is characterized in that the two ends of described pivot arm are respectively provided with a pivot arm plug.
5. unmanned plane pan-shot The Cloud Terrace in the finite space according to any one of claim 1 to 3, it is characterized in that the camera holder on described pivot arm is two, two camera holders are respectively provided with a camera, one end of two camera holders is hinged on pivot arm respectively, and the other end is fixed together by angle adjustment screw and forms hinged camera holder.
6. unmanned plane pan-shot The Cloud Terrace in the finite space according to any one of claim 1 to 3, is characterized in that opposite side relative with camera on described pivot arm is provided with a weight equalizer.
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Cited By (7)
| Publication number | Priority date | Publication date | Assignee | Title |
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| CN104881049A (en) * | 2015-05-28 | 2015-09-02 | 天津大学 | Unmanned plane panorama shot holder in limit space |
| CN105430261A (en) * | 2015-11-16 | 2016-03-23 | 杨珊珊 | Photographing method of unmanned aerial vehicle and photographing device of unmanned aerial vehicle |
| CN107132722A (en) * | 2017-04-25 | 2017-09-05 | 中国科学技术大学先进技术研究院 | A kind of configurable panorama camera loading device and method |
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- 2015-05-28 CN CN201520357300.5U patent/CN204650290U/en not_active Withdrawn - After Issue
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| CN104881049A (en) * | 2015-05-28 | 2015-09-02 | 天津大学 | Unmanned plane panorama shot holder in limit space |
| CN104881049B (en) * | 2015-05-28 | 2017-07-11 | 天津大学 | Unmanned plane pan-shot head in the confined space |
| CN108698692A (en) * | 2015-11-06 | 2018-10-23 | 思飞锐有限责任公司 | Flight instrumentation without wing |
| CN108698692B (en) * | 2015-11-06 | 2022-01-14 | 思飞锐有限责任公司 | Wingless flight instrument |
| CN105430261A (en) * | 2015-11-16 | 2016-03-23 | 杨珊珊 | Photographing method of unmanned aerial vehicle and photographing device of unmanned aerial vehicle |
| US9796482B2 (en) | 2015-12-11 | 2017-10-24 | Coriolis Games Corporation | Aerial sensor system and mounting assembly therefor |
| CN114228599A (en) * | 2016-04-29 | 2022-03-25 | 深圳市大疆创新科技有限公司 | System and method for unmanned aerial vehicle transport and data acquisition |
| CN114228599B (en) * | 2016-04-29 | 2023-11-17 | 深圳市大疆创新科技有限公司 | System and method for unmanned aerial vehicle transportation and data acquisition |
| CN107132722A (en) * | 2017-04-25 | 2017-09-05 | 中国科学技术大学先进技术研究院 | A kind of configurable panorama camera loading device and method |
| CN107132722B (en) * | 2017-04-25 | 2019-12-10 | 中国科学技术大学先进技术研究院 | Configurable panoramic camera carrying device and method |
| CN109005263A (en) * | 2018-08-30 | 2018-12-14 | 维沃移动通信有限公司 | A kind of mobile terminal |
| CN109005263B (en) * | 2018-08-30 | 2021-03-23 | 维沃移动通信有限公司 | Mobile terminal |
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Granted publication date: 20150916 Effective date of abandoning: 20170711 |
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| AV01 | Patent right actively abandoned |