CN113124304B - Stabilizer handheld portion with vertical damping mechanism and handheld stabilizer - Google Patents
Stabilizer handheld portion with vertical damping mechanism and handheld stabilizer Download PDFInfo
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- CN113124304B CN113124304B CN202110348712.2A CN202110348712A CN113124304B CN 113124304 B CN113124304 B CN 113124304B CN 202110348712 A CN202110348712 A CN 202110348712A CN 113124304 B CN113124304 B CN 113124304B
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- 238000013016 damping Methods 0.000 title claims abstract description 97
- 239000003381 stabilizer Substances 0.000 title claims abstract description 66
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Classifications
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F16—ENGINEERING ELEMENTS AND UNITS; GENERAL MEASURES FOR PRODUCING AND MAINTAINING EFFECTIVE FUNCTIONING OF MACHINES OR INSTALLATIONS; THERMAL INSULATION IN GENERAL
- F16M—FRAMES, CASINGS OR BEDS OF ENGINES, MACHINES OR APPARATUS, NOT SPECIFIC TO ENGINES, MACHINES OR APPARATUS PROVIDED FOR ELSEWHERE; STANDS; SUPPORTS
- F16M13/00—Other supports for positioning apparatus or articles; Means for steadying hand-held apparatus or articles
- F16M13/04—Other supports for positioning apparatus or articles; Means for steadying hand-held apparatus or articles for supporting on, or holding steady relative to, a person, e.g. by chains, e.g. rifle butt or pistol grip supports, supports attached to the chest or head
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F16—ENGINEERING ELEMENTS AND UNITS; GENERAL MEASURES FOR PRODUCING AND MAINTAINING EFFECTIVE FUNCTIONING OF MACHINES OR INSTALLATIONS; THERMAL INSULATION IN GENERAL
- F16F—SPRINGS; SHOCK-ABSORBERS; MEANS FOR DAMPING VIBRATION
- F16F15/00—Suppression of vibrations in systems; Means or arrangements for avoiding or reducing out-of-balance forces, e.g. due to motion
- F16F15/02—Suppression of vibrations of non-rotating, e.g. reciprocating systems; Suppression of vibrations of rotating systems by use of members not moving with the rotating systems
- F16F15/04—Suppression of vibrations of non-rotating, e.g. reciprocating systems; Suppression of vibrations of rotating systems by use of members not moving with the rotating systems using elastic means
- F16F15/06—Suppression of vibrations of non-rotating, e.g. reciprocating systems; Suppression of vibrations of rotating systems by use of members not moving with the rotating systems using elastic means with metal springs
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F16—ENGINEERING ELEMENTS AND UNITS; GENERAL MEASURES FOR PRODUCING AND MAINTAINING EFFECTIVE FUNCTIONING OF MACHINES OR INSTALLATIONS; THERMAL INSULATION IN GENERAL
- F16M—FRAMES, CASINGS OR BEDS OF ENGINES, MACHINES OR APPARATUS, NOT SPECIFIC TO ENGINES, MACHINES OR APPARATUS PROVIDED FOR ELSEWHERE; STANDS; SUPPORTS
- F16M11/00—Stands or trestles as supports for apparatus or articles placed thereon ; Stands for scientific apparatus such as gravitational force meters
- F16M11/02—Heads
- F16M11/04—Means for attachment of apparatus; Means allowing adjustment of the apparatus relatively to the stand
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F16—ENGINEERING ELEMENTS AND UNITS; GENERAL MEASURES FOR PRODUCING AND MAINTAINING EFFECTIVE FUNCTIONING OF MACHINES OR INSTALLATIONS; THERMAL INSULATION IN GENERAL
- F16M—FRAMES, CASINGS OR BEDS OF ENGINES, MACHINES OR APPARATUS, NOT SPECIFIC TO ENGINES, MACHINES OR APPARATUS PROVIDED FOR ELSEWHERE; STANDS; SUPPORTS
- F16M2200/00—Details of stands or supports
- F16M2200/02—Locking means
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- Engineering & Computer Science (AREA)
- General Engineering & Computer Science (AREA)
- Mechanical Engineering (AREA)
- Physics & Mathematics (AREA)
- Acoustics & Sound (AREA)
- Aviation & Aerospace Engineering (AREA)
- Vibration Prevention Devices (AREA)
Abstract
The invention discloses a handheld part of a stabilizer with a vertical damping mechanism and the handheld stabilizer, wherein the handheld part comprises a handheld part shell, the vertical damping mechanism, a circuit board fixedly connected with the handheld part shell, a clearance wiring groove vertically arranged, a wire and a stopping part; the vertical damping mechanism comprises a first end and a second end which move relatively and a bar-shaped rod fixedly connected with the first end of the vertical damping mechanism, and the stop part comprises a clamping part and a buckling part which are matched with each other and used for locking the relative position of the bar-shaped rod and the handheld part; the clearance wiring groove is located between the circuit board and the bar-shaped rod, one end of the wire rod is fixedly arranged on the circuit board, and the other end of the wire rod penetrates through the clearance wiring groove and is fixedly arranged on one side, close to the circuit board, of the bar-shaped rod. The handheld stabilizer with the vertical damping mechanism and the handheld stabilizer can be conveniently stored by a user, wires are not easy to wind, the wiring distance is short, and friction is not generated between the wires and other parts.
Description
Technical Field
The invention relates to the field of handheld stabilizer equipment, in particular to a stabilizer handheld part with a vertical damping mechanism and a handheld stabilizer.
Background
In the field of photography auxiliary equipment, a handheld stabilizer is the conventional auxiliary equipment with higher shooting stability, and with the continuous expansion of the application field of the handheld stabilizer, the relevant requirements on the application aspect of the handheld stabilizer are gradually increased; for example: the vibration of the handheld stabilizer in the vertical direction can be reduced, namely, the vibration in the vertical direction caused by the pace of a user in the walking process can be solved; or the handheld part is replaced or lengthened, so that the problem of low battery endurance can be solved by replacing the handheld part, and the handheld part is suitable for high-point shooting scenes and has wider applicability.
In the prior art, some vertical shock-absorbing handheld stabilizers are provided, for example, chinese patents CN109812682A and CN110067913A both disclose a vertical shock-absorbing device for a handheld stabilizer, and although the above prior art can solve the vertical vibration caused by the pace of the user, when the above device is not in use, the loads (such as a shooting device or a pan-tilt head) erected on the shock-absorbing device can make the first end and the second end of the vertical shock-absorbing device unnecessarily move under the action of gravity or external force, which is inconvenient for the user to store, and in addition, only one set of shock-absorbing device is added on the basis of the handheld stabilizer in the above prior art, so the shock-absorbing device does not involve the wiring problems of power supply, signal control, and the like; in the technical aspect of changing handheld portion, the handle battery that chinese patent CN207765503U discloses, handle battery suit, and handheld cloud platform, its handle battery, can dismantle with the cloud platform and be connected, thereby can send it to charge after not having the electricity time to pull down, and use reserve handle battery to continue to shoot, this prior art has solved the problem that handheld stabilizer duration is low, but it can only assemble and dismantle to supporting aircraft nose and handle, the commonality is relatively poor, this prior art's handheld portion does not have shock-absorbing function, the wiring is relatively easy, the wire rod can not move.
In the disclosure of the above-mentioned vertical damping device, there are also some specific structures about the detachment of the hand-held portion, the above-mentioned vertical damping includes the first end and the second end which are connected through the elastic member and move relatively, wherein one end is mainly connected with the pan-tilt or the shooting device through 1/4 screws or an integrated manner, and the other end is fixedly connected with the holding portion.
Disclosure of Invention
Aiming at the problems, the invention provides a handheld stabilizer part with a vertical damping mechanism and a handheld stabilizer, aiming at solving the problems that the first end and the second end of the existing vertical damping mechanism move relatively under the non-use state, the vertical damping mechanism is not easy to wire, the universality with a detachable structure of a load is poor, the disassembly and the assembly are inconvenient, and the like.
The invention adopts the following technical scheme to realize the purpose:
a stabilizer handheld part with a vertical damping mechanism comprises a handheld part shell, the vertical damping mechanism, a circuit board fixedly connected with the handheld part shell, a clearance wiring groove vertically distributed, a wire and a stopping part; the vertical shock absorption mechanism comprises a first end and a second end which move relatively and a bar-shaped rod fixedly connected with the first end of the vertical shock absorption mechanism, and the second end of the vertical shock absorption mechanism is fixedly connected with the shell of the handheld part; the stopping part comprises a clamping part and a buckling part which are matched with each other and is used for locking the relative position of the strip-shaped rod and the handheld part; the space-avoiding wiring groove is positioned between the circuit board and the bar-shaped rod, one end of the wire is fixedly arranged on the circuit board, and the other end of the wire penetrates through the space-avoiding wiring groove and is fixedly arranged on one side, close to the circuit board, of the bar-shaped rod.
In the technical scheme, the stopping part is additionally arranged on the part connecting the first end and the second end of the vertical damping mechanism, and the first end and the second end of the damping mechanism are fixed through the stopping part under the condition of storage or non-use, so that the relative rest of the first end and the second end is realized, and the storage of a user can be facilitated; the wire rod among this technical scheme includes power cord and/or signal line, utilize the characteristic that the wire rod can buckle, fix its both ends respectively on the lateral wall that circuit board and bar are close to the circuit board, and add between bar and circuit board and established and kept away the empty wiring groove, calculate the distance of bar maximum stroke position process keeping away empty wiring groove to circuit board, reserve wire rod length, make the wire rod move under the restraint of keeping away empty wiring groove under vertical damper operating condition (under the relative handheld portion motion state of bar), the wire rod is difficult for twining, walk the line distance short, do not produce the friction with other parts.
The further technical proposal is that a cavity for accommodating the sliding of the bar-shaped rod is arranged in the shell of the hand-held part; the buckling part comprises a lock catch, and the clamping part is a boss matched with the lock catch; the lock catch is positioned at the handheld part, and the boss is positioned on the bar-shaped rod; when the bar-shaped rod slides to the preset position of the cavity, the lock catch is buckled on the boss.
Among this technical scheme, because including the elastic component in the vertical damper, when the bar slides to the cavity and predetermines the position, the elastic component is in the resilience state, and under the effect of elastic component resilience force, the bar has the trend of upward movement, and the hasp of locking part is detained the upper end at the boss again, so the bar has received vertical upwards and decurrent restriction, makes bar and handheld portion keep relatively static.
A further technical scheme is that an elastic cushion block is arranged at the bottom end of the cavity, and when the lock catch is matched with the boss, the elastic cushion block is in interference fit with the bottom end of the bar-shaped rod.
This technical scheme has add the elastic cushion, and when the locking part was in the locking state, bar pole and elastic cushion interference fit, there was not the movement clearance in the relative handheld portion of bar pole, improvement locking state's that can be further stability.
The further technical scheme is that the buckling part further comprises a connecting rod and a pin shaft, the lock catch and the pin shaft are respectively located at two ends of the connecting rod, and the lock catch is connected with the handheld part in a pivotable mode through the pin shaft.
In the technical scheme, when the strip-shaped rod slides to the position where the clamping part is matched with the buckling part, the clamping part and the buckling part can be matched by operating the connecting rod to turn over along the pin shaft, namely, the lock buckle is buckled on the boss to realize locking; and then the lock catch is separated from the boss through the reverse overturning connecting rod, so that unlocking is realized.
The further technical scheme is that the stopping part further comprises a stopping elastic piece, and the elastic force of the stopping elastic piece is used for driving the lock catch to overturn along the direction of the pin axial boss. In the technical scheme, when the sliding bar-shaped rod reaches the position where the clamping part is matched with the buckling part, the connecting rod automatically turns over along the pin shaft under the action of the stopping elastic piece, so that automatic locking can be realized; and then the connecting rod is reversely turned by external force to realize unlocking.
The further technical scheme is that the stopping part further comprises a shifting lever matched with the connecting rod, and the shifting lever is connected with the shell of the handheld part in a sliding mode and at least partially located on the outer side of the handheld part. The technical scheme is additionally provided with the shifting lever linked with the buckling part, so that a user can conveniently operate the buckling part to realize unlocking.
The technical scheme is that the side wall of the connecting rod is provided with a chute matched with the shifting rod, and two ends of the chute are respectively provided with a first stop clamping groove and a second stop clamping groove matched with the shifting rod.
In the technical scheme, the initial moment is an unlocking state, the strip-shaped rod is pressed downwards to the position where the clamping part is matched with the buckling part, the lock catch is buckled on the boss under the elastic action of the stopping elastic piece, the deflector rod is matched with the first stopping clamping groove at the moment, the first stopping clamping groove can prevent the lock catch from being easily separated from the boss, and the stability of the stopping part is improved; when the bar-shaped rod needs to be unlocked, the operating driving rod slides to the second locking clamping groove along the inclined groove, and meanwhile, the connecting rod is driven to move in the opposite direction of the elastic force of the locking elastic piece, namely, the locking buckle is separated from the boss, and the second locking clamping groove can limit the connecting rod to be in an unlocking state all the time under the effect of no external force and does not influence the vertical movement of the bar-shaped rod.
The technical scheme is that a wiring groove and a first wire pressing block are arranged on one side, close to the circuit board, of the bar-shaped rod, and a second wire pressing block is arranged on the circuit board.
This technical scheme, because first line ball piece and second line ball piece have certain length in the circumference of wire rod, can restrict the wire rod at both ends, the wire rod can only move in keeping away the empty trough according to both ends position.
The further technical scheme is that the width of the clearance wiring groove is matched with that of the wire. This technical scheme can further restrict the wire rod and remove in keeping away empty trough.
The further technical scheme is that the vertical shock absorption mechanism further comprises a force transmission mechanism and a force generation mechanism; the force transmission mechanism comprises a middle shaft and a rotating wheel in transmission connection with a strip-shaped rod, the middle shaft is in rotation connection with the handheld part shell, the middle shaft is in transmission connection with the rotating wheel, and the strip-shaped rod is in sliding connection with the handheld part shell in the vertical direction; the force generating mechanism comprises a coil spring and a coil spring shell, the coil spring shell is rotatably connected with the central shaft, the inner end of the coil spring is fixedly connected with the central shaft, and the outer end of the coil spring is fixedly connected with the coil spring shell; the coil spring shell is fixedly connected with the handheld part shell.
In the technical scheme, the elastic piece of the vertical damping mechanism adopts a coil spring, and because the moment change of the coil spring in the use process is small, the force applied by the coil spring to the rotating wheel for supporting the load is approximately constant when the coil spring vertically generates vibration; the specific shock absorption process is as follows: at the initial moment, a load is installed on the first end of the vertical damping mechanism, the gravity of the load drives the bar-shaped rod to move downwards, so that the rotating wheel and the middle shaft are driven to rotate, namely the coil spring is compressed (the number of turns of the coil spring is increased), and the resilience force of the coil spring supports the load; when vertical reciprocating vibration is received (namely the second end of the vertical damping mechanism generates vertical force), the vertical motion is converted into that the middle shaft drives the rotating wheel to rotate stably along the bar-shaped rod through the force transmission mechanism and the force generation mechanism, and the first end (namely the load) without driving the vertical damping mechanism moves in the vertical direction, so that the load is always in a balanced state in the vertical direction in the vertical vibration process; in addition, a vertical damping mechanism in the following technical scheme and a vertical damping mechanism with a spring, an involute wheel and an involute in the prior art can be adopted.
The further technical scheme is that the vertical shock absorption mechanism further comprises a force transmission mechanism and a force generation mechanism; the force transmission mechanism comprises a middle shaft and a rotating wheel in transmission connection with the strip-shaped rod, the middle shaft is fixedly connected with the shell of the handheld part, and the middle shaft is in rotating connection with the rotating wheel; the bar-shaped rod is connected with the handheld part shell in a sliding mode in the vertical direction; the force generating mechanism comprises a coil spring and a coil spring shell, and the coil spring shell is sleeved outside the middle shaft and is fixedly connected with the rotating wheel; the inner end of the coil spring is fixedly connected with the middle shaft, and the outer end of the coil spring is fixedly connected with the coil spring shell.
In the technical scheme, the elastic part also adopts a coil spring with small moment change, and the force applied by the coil spring to the rotating wheel to support the load is approximately constant in the vibration process; the specific shock absorption process is as follows: at the initial moment, a load is installed at the first end of the vertical damping mechanism, the gravity of the load drives the bar-shaped rod to move downwards, so that the rotating wheel and the coil spring shell are driven to rotate, namely the coil spring is compressed (the number of turns of the coil spring is increased), and the resilience force of the coil spring supports the load; when receiving vertical reciprocating vibration (when vertical shock-absorbing mechanism's second end produced vertical power promptly), convert vertical motion into the coil spring casing through power transmission mechanism and power generation mechanism and drive the rolling wheel and rotate along the bar steadily, and the first end (load promptly) that does not drive vertical shock-absorbing mechanism moves in vertical direction, consequently, in vertical vibrations in-process, the load is in balanced state all the time in vertical direction.
The further technical scheme is that the middle shaft is fixedly connected with a coaxial ratchet wheel, and the handheld portion is provided with a pawl matched with the ratchet wheel. This technical scheme realizes the relatively fixed of axis and handheld portion through the cooperation of ratchet and pawl, thereby can also drive the coil spring through adjusting the ratchet rotation in addition and tighten up or loosen, can adjust initial moment bar and rotate wheel matched with position promptly, it is worth noting because vertical motion includes two directions upwards and downwards, consequently at initial moment (after the installation load promptly), the accessible ratchet will rotate the wheel and adjust to the position cooperation roughly in the middle of with the bar, the shock attenuation of vertical upwards and two downward directions of realization vertical damper that can be better.
The further technical proposal is that the side wall of the ratchet wheel is provided with a thread bulge coaxial with the ratchet wheel; the vertical shock absorption mechanism also comprises a limit nut matched with the thread bulge and a cover plate fixedly connected with the handheld part; the cover plate is provided with a limiting nut guide groove, and the outer ring of the limiting nut and the inner ring of the limiting nut guide groove are provided with matched limiting structures.
In the technical scheme, the limiting structure of the limiting nut and the limiting nut guide groove can limit the movement of the limiting nut in the guide groove along the axial direction without rotating; and the ratchet wheel drives the thread bulge to rotate in the adjusting process and simultaneously drives the limit nut to move in the limit nut guide groove along the axial direction, and the limit nut can move to the thread tail end of the thread bulge in the first direction and move to the end part (namely the inner wall of the cover plate) of the limit nut guide groove in the second direction.
A further technical scheme does, vertical damper is still including position sensor, controller and the motor that is used for measuring the first end vertical position of vertical damper, wherein, the controller receives the vertical position signal that comes from position sensor and generates the output signal who is used for the control motor action, the motor is including the rotation end that is equipped with the motor shaft and the stiff end that carries on motor core, rotate the end and rotate the coaxial fixed connection of wheel, stiff end and handheld portion casing fixed connection.
In the technical scheme, the torque of the motor drives the rotating wheel and the bar-shaped rod to move relatively, namely, the load at the first end of the vertical damping device is driven to move along the direction opposite to the vibration direction, so that the load is always positioned at the determined position in the vertical direction, and the load can be further accurately controlled to be always positioned at the determined position in the vertical direction.
The further technical scheme is that the buckling part comprises a lock catch, and the clamping part is a boss matched with the lock catch; the lock catch is positioned at the handheld part, and the boss is positioned on the bar-shaped rod; when the bar-shaped rod slides to a preset position of the cavity, the lock catch is buckled on the boss; the locking part also comprises a locking elastic piece, and the elasticity of the locking elastic piece is used for driving the lock catch to move towards the boss; the stop part further comprises a ship-shaped switch matched with the controller, and the controller receives a first direction signal and a second direction signal of the ship-shaped switch and respectively generates a control motor to drive the rotating wheel to rotate upwards along the bar-shaped rod and drive the rotating wheel to rotate downwards along the bar-shaped rod.
In the technical scheme, the ship-shaped switch is used for driving the motor to rotate so as to automatically recover the bar-shaped rod and lock the vertical damping mechanism; when the controller receives a first direction signal of the ship-shaped switch, the generated control motor drives the rotating wheel to rotate upwards along the bar-shaped rod, namely the bar-shaped rod is recovered into the cavity, and when the bar-shaped rod reaches a preset position of the cavity, automatic locking is realized under the action of the stop elastic piece; when the controller receives a second direction signal of the ship-shaped switch, the generation control motor drives the rotating wheel to rotate downwards along the bar-shaped rod, the operating lock catch is separated from the boss at the moment, and the bar-shaped rod moves upwards relative to the handheld portion to realize unlocking. In addition, when vertical damper carries on the triaxial cloud platform, this technical scheme can realize automatic switch-over triaxial mode and four-axis mode.
The ship-shaped switch further comprises a poking piece, and the poking piece is matched with the buckling part. The piece is dialled to having added on the basis of above-mentioned technical scheme, this piece is dialled can switch the signal of ship type switch on the one hand, on the other hand can drive the elasticity that locking elastic component was offset to the knot portion, in the use, when dialling the piece and being located first direction signal, the motor drives and rotates the wheel along bar pole upwards rotation, the knot portion receives the elasticity of locking elastic component, bar pole motion to cavity default position, the hasp is automatic to cooperate with the boss, when dialling the piece and being located second direction signal, it drives the reverse motion of knot portion to elastic component elasticity to dial the piece, the hasp breaks away from the boss promptly, the relative handheld upward motion of portion, realize automatic unblock.
The further technical scheme is that the handheld part also comprises a quick-release seat connected with the first end of the vertical shock absorption mechanism; the outer ring of the quick-release seat is provided with an open slot and locking screws connected with two sides of the open slot.
Among this technical scheme, handheld portion adopts the quick detach seat of similar pipe clamp structure, with the stiff end cooperation of cloud platform below motor, the open slot cooperation locking screw of quick detach seat outer loop (utilize locking screw to tighten up the open slot or relax), can adjust the internal diameter of quick detach seat and press from both sides the stiff end of tight or relax the below motor of cloud platform to realize fast-assembling or quick detach, and the commonality is better, can assemble most detachable cloud platforms.
The further technical scheme is that a silica gel layer is arranged between the quick-release seat and the first end of the vertical damping mechanism and/or at the bottom of the quick-release seat. The silica gel layer is additionally arranged between the quick-release seat and the first end of the vertical damping mechanism and/or at the bottom of the quick-release seat, and the load is isolated from the handheld portion, so that the influence of the vibration of the vertical damping mechanism on the load is reduced, and the shooting stability can be further improved.
The further technical proposal is that the hand-held part also comprises an IMU plate; the side wall of the quick-release seat is provided with an IMU plate mounting groove and an end cover matched with the IMU plate mounting groove, the IMU plate is connected with the end cover through a damping ball, and the end cover is fixedly connected with the side wall of the quick-release seat.
In the technical scheme, an IMU board is a circuit board of an inertia measurement unit and is used for the vertical position of a first end (namely, one end connected with a load part) of a vertical damping mechanism, and a controller receives a vertical position signal from the IMU board and generates an output signal for controlling the action of a motor in the vertical damping mechanism; wherein, this technical scheme usable a plurality of shock attenuation balls (silica gel ball) keep apart IMU board and quick detach seat, have reduced vibrations to the influence of IMU board, improve the detection precision of IMU board.
A further technical scheme is, still include display screen, connecting piece, first pivot, with display screen fixed connection's second pivot, the connecting piece just rotates along first direction with first pivot with the casing fixed connection of handheld portion and is connected, the second pivot rotates along the second direction with first pivot and is connected, first pivot and second pivot quadrature.
In the technical scheme, the display screen capable of rotating in two directions is added on the shell of the handheld part of the stabilizer, so that a user can conveniently observe information such as a shot picture.
The utility model provides a handheld stabilizer, includes the handheld portion of foretell stabilizer, installs in the cloud platform of vertical damper first end.
The first end of the vertical damping mechanism is detachably connected with the holder through a quick-release seat, and the outer ring of the quick-release seat is provided with an open slot and locking screws connected with the two sides of the open slot; the quick detach seat is equipped with the electrically conductive contact of matched with the stiff end of cloud platform below motor.
According to the technical scheme, the pipe clamp type quick-release seat is adopted, the quick-release seat is provided with the open slot, the open slot is tightened by the locking screw so as to clamp the fixed end of the motor at the lowest part of the tripod head, and the locking screw is loosened to take down the tripod head or replace the cloud platform, so that the purposes of quick release and quick assembly are achieved; and a power supply can be arranged in the handheld part, and the power supply and the signal transmission of the components such as the motor, the encoder, the circuit board and the like of the holder can be realized by utilizing the electric conduction and electric shock.
The further technical scheme is that the inner ring of the quick-release seat and the outer ring of the fixed end of the motor at the lowest part of the holder are provided with matched limiting structures.
According to the technical scheme, the quick-mounting and quick-dismounting of the handheld stabilizer can be realized on the premise of ensuring the accurate relative mounting position of the holder and the handheld part, and the fixed end of the motor at the lowest part of the holder can be limited to rotate in the quick-dismounting seat.
The further technical scheme is that an inner ring of the quick-release seat and an outer ring of a fixed end of a motor at the lowest part of the holder are provided with matched anti-disengaging structures.
Among this technical scheme, anti-disengaging structure can avoid when locking screw does not tighten, and the cloud platform drops, improves the security performance of stabilizer.
The anti-tripping structure comprises an anti-tripping part and an anti-tripping part, wherein the anti-tripping part comprises a first anti-tripping part and a second anti-tripping part, and the anti-tripping part comprises a fixed end outer ring of a motor positioned at the lowest part of the holder and two anti-tripping clamping grooves matched with the first anti-tripping part and the second anti-tripping part; the quick detach seat lateral wall is equipped with the anticreep of lining up and detains the mounting groove, first anticreep is detained and the second anticreep is detained and is rotated with the anticreep mounting groove through first round pin axle and second round pin axle respectively and be connected, first anticreep is detained and the second anticreep one end is located quick detach seat outside, and is equipped with the anticreep elastic component between the tip, and the other end runs through the anticreep mounting groove, and is equipped with respectively with anticreep draw-in groove complex mousing-hook.
Among this technical scheme, two anticreeps are located the both sides of anticreep knot mounting groove respectively, and the anticreep elastic component that utilizes the other end is in the straining state with two anticreeps always, because anticreep dropout be equipped with anticreep draw-in groove matched with anticreep hook, when the quick detach seat bottom was placed to the cloud platform, can realize the anticreep effect of cloud platform.
The invention has the beneficial effects that:
according to the handheld part of the stabilizer with the vertical damping mechanism and the handheld stabilizer, the stopping part is additionally arranged on the part connecting the first end and the second end of the vertical damping mechanism, and the first end and the second end of the damping mechanism are fixed through the stopping part under the condition of storage or non-use, so that the first end and the second end are relatively static, and the storage of a user can be facilitated; the wire rod penetrates through the clearance wiring groove, and the wire rod moves under the restraint of the clearance wiring groove under the working state of the vertical damping mechanism (the state that the bar-shaped rod moves relative to the handheld part), so that the wire rod is not easy to wind, the wiring distance is short, and the wire rod does not generate friction with other parts; and the quick-release base with a structure similar to a pipe clamp is matched with the fixed end of the motor at the lowest part of the holder, so that the quick-release or quick-release can be realized, the universality is better, and most of detachable holders can be assembled.
Drawings
FIG. 1 is a diagram: the invention discloses a schematic exploded first-direction diagram of a handheld part second shell with a vertical damping mechanism stabilizer.
FIG. 2 is a diagram of: the invention relates to a schematic diagram of a second direction for disassembling a second shell of a handheld part of a stabilizer with a vertical damping mechanism.
FIG. 3 is a diagram of: the invention relates to a cross section of a handheld part of a stabilizer with a vertical damping mechanism.
FIG. 4 is a diagram of: the invention discloses an exploded schematic view of a first shell of a handheld part of a stabilizer with a vertical damping mechanism.
FIG. 5 is a diagram: the area A in FIG. 1 is an enlarged schematic view of the structure.
FIG. 6 is a diagram of: the invention discloses a structural schematic diagram of a vertical damping mechanism of a handheld part.
FIG. 7 shows: the invention discloses a structural schematic diagram of another vertical shock absorption mechanism of a handheld part.
FIG. 8 is a diagram: the invention relates to a structure decomposition schematic diagram of a quick-release seat.
FIG. 9 is a diagram of: the invention discloses a structure schematic diagram of a quick-release seat.
FIG. 10 is a diagram: the invention relates to a sectional view of a quick-release seat structure.
FIG. 11 is a diagram of: the invention discloses an exploded schematic view of a handheld part and a holder of a stabilizer.
In the figure:
1. a hand-held portion; 10. a hand-held portion housing; 100. an air-avoiding wiring groove; 101. a first housing; 102. a second housing; 103. a cavity; 104. a support frame; 1031. an elastic cushion block; 11. a wire rod; 110. a wiring groove; 111. a first wire pressing block; 112. a second wire pressing block; 12. a circuit board; 13. a vertical shock absorbing mechanism; 130. a pawl; 131. a first end of a vertical damping mechanism; 132. a vertical damping mechanism second end; 133. a ratchet wheel; 1330. a limit nut; 1331. a threaded boss; 1332. a cover plate; 1333. a limiting nut guide groove; 134. a middle shaft; 135. a rotating wheel; 136. a bar-shaped rod; 137. a coil spring; 138. a coil spring housing; 140. a pin shaft; 141. locking; 142. a boss; 143. a connecting rod; 1430. a chute; 1431. a first retaining clip groove; 1432. a second retaining clip groove; 144. a stopper elastic member; 145. a deflector rod; 146. a boat-shaped switch; 15. a quick release seat; 150. an open slot; 151. locking the screw; 152. a first contact; 16. an IMU board; 160. an IMU plate mounting groove; 161. an end cap; 162. a shock absorbing ball; 171. a first anti-tripping function; 1711. a first anti-trip hook 172, a second anti-trip; 173. an anti-drop elastic member; 170. an anti-tripping mounting groove; 2. a holder; 21. a first motor; 210. a second contact; 211. a first motor fixing end; 31. a first silica gel layer; 32. and a second silica gel layer.
Detailed Description
The present invention will be described in detail with reference to fig. 1 to 11 and the following embodiments, wherein the features of the embodiments and the examples can be combined with each other without conflict, and the connection relationships such as "fixed connection", "connection", and the like in the following embodiments include direct connection between components, indirect connection through an intermediate member, and the like; "drive connection" means a connection involving transmission of motion, for example, a connection by meshing a gear with a rack, or a gear with a gear in the following embodiments, or a linkage by coaxial fixed connection, or the like.
In the prior art, because the first end and the second end of the damping mechanism which move relatively are connected through the elastic part, under the non-use state, the first end and the second end of the damping mechanism can move relatively due to external force, which affects the storage of a user; moreover, products in the prior art are all formed by additionally arranging a vertical damping mechanism on the basis of the existing handheld stabilizer, and the vertical damping mechanism only has a damping function and does not have a control system or a power supply system matched with the handheld stabilizer.
The present embodiment provides a stabilizer handheld portion with a vertical damping mechanism, as shown in fig. 1 to 7, the handheld portion 1 includes a handheld portion housing 10, a vertical damping mechanism 13, a circuit board 12 fixedly connected to the handheld portion housing 10, a clearance wiring groove 100 vertically arranged, a wire 11, and a stopper portion; the vertical damping mechanism comprises a first end and a second end which move relatively, and a bar-shaped rod 136 fixedly connected with the first end 131 of the vertical damping mechanism, and the second end 132 of the vertical damping mechanism is fixedly connected with the handheld part shell 10; a cavity 103 for accommodating the sliding of the bar-shaped rod 136 is arranged in the hand-held part shell 10; the stop part comprises a buckle part and a clamping part which are matched with each other and used for locking the relative position of the bar-shaped rod 136 and the handheld part 1; the clearance wiring groove 100 is located between the circuit board 12 and the bar-shaped rod 136, one end of the wire 11 is fixedly arranged on the circuit board 12, and the other end penetrates through the clearance wiring groove 100 and is fixedly arranged on one side of the bar-shaped rod 136 close to the circuit board 12;
specifically, as shown in fig. 1 to 5, the hand-held portion housing 10 in the present embodiment includes a first housing 101 and a second housing 102, and the circuit board 12 is fixed to an inner wall of the first housing 101 by screws; in order to facilitate assembling of the handheld portion casing 10, a support frame 104 is further arranged inside the handheld portion casing 10, the first casing 101 and the second casing 102 are both fixedly connected with the support frame 104 through screws, the vertical damping mechanism second end 132 is fixedly connected with the support frame 104, the cavity 103 is located inside the support frame 104, the handheld portion casing 10 where the cavity 103 is located is a portion to be held by a user, a slider 1041 is further arranged inside the support frame 104, the slider 1041 and the bar rod 136 are provided with a slide rail and a slide groove which are matched with each other, the bar rod 136 and the slider 1041 are connected in a sliding manner in a vertical direction, and therefore the vertical relative movement between the vertical damping mechanism first end 131 and the vertical damping mechanism second end 132 is achieved;
the space-avoiding wiring groove 100 is arranged on one side wall of the support frame 104 close to the first shell 101 and is communicated with the side wall, the wire 11 is a flat cable comprising a power line and a signal line, one end of the wire 11 is fixed on the circuit board 12 through the first pressing block 111 and is communicated with the circuit board, the other end of the wire 11 penetrates through the space-avoiding wiring groove 100 and is communicated with one side wall, close to the circuit board 12, of the bar-shaped rod 136 through the second pressing block 112, and is used for being communicated with the cradle head 2 or a conductive contact in the following embodiment mode, wherein the width of the space-avoiding wiring groove 100 can be arranged according to the specific width of the wire 11, and the width of the space-avoiding wiring groove is most suitable for being slightly larger than the width of the wire 11;
the stopping part comprises a buckling part positioned on the second shell 102, a clamping part (specifically a boss 142) positioned on one side of the bar-shaped rod 136 close to the second shell 102, and a stopping elastic part 144, the buckling part is specifically a connecting rod 143, two ends of which are respectively provided with a pin shaft 140 and a lock catch 141, the lock catch 141 is pivotably connected with the second shell 102 through the pin shaft 140, a pin hole matched with the pin shaft 140 is formed in the inner wall of the second shell 102, and the connecting rod 143 is hinged with the inner wall of the second shell 102 through the pin shaft 140 and the pin hole, so that the locking in a turning manner towards the clamping part or the unlocking in a turning manner away from the clamping part are realized; the stop elastic member 144 is a spring, and is abutted between the connecting rod 143 and the second housing 102, and sets a specific matching position of the locking portion and the buckling portion through the specific length of the cavity 103 and the bar-shaped rod 136, and when the bar-shaped rod 136 slides to the bottom of the cavity 103, the boss 142 reaches a position matching with the buckle 141; the specific locking process of the stopper is as follows: when the bar-shaped rod 136 is slid to the position where the boss 142 is matched with the lock catch 141, the connecting rod 143 automatically turns over towards the boss 142 along the pin 140 under the action of the stop elastic member 144, at this time, the elastic member (i.e. the coil spring in the following embodiment) of the vertical shock absorption mechanism is in a rebound state, under the action of the rebound force of the elastic member of the vertical shock absorption mechanism, the bar-shaped rod 136 tends to move upwards, the lock catch 141 of the stop part is buckled at the upper end of the boss 142, and therefore the bar-shaped rod 136 is limited vertically upwards and downwards, so that the bar-shaped rod 136 and the handheld part 1 are kept relatively static, and automatic locking is realized; then, the connecting rod is reversely turned over through external force, and the bar-shaped rod 136 slides to a balance position under the effect of the resilience force of the elastic piece of the vertical damping mechanism, so that unlocking is realized;
as shown in fig. 7, the vertical shock-absorbing mechanism specifically includes a force transmission mechanism and a force generation mechanism, the first end 131 of the vertical shock-absorbing mechanism may be any other position on the bar-shaped rod 136 or another structure mounted on the bar-shaped rod 136 through a rigid structure, and in the shock-absorbing process, the structures or components rigidly connected to the bar-shaped rod 136 are all in a balanced state in the vertical direction; the vertical shock absorbing mechanism second end 132 may also be the hand-held housing 10, other components mounted to the hand-held housing 10 anywhere through a rigid structure; wherein the force transmission mechanism comprises a central shaft 134 and a rotating wheel 135 in transmission connection with a bar-shaped rod 136 (specifically, one side of the bar-shaped rod 136, which is matched with the rotating wheel 135, is provided with a rack, the rotating wheel 135 is a gear meshed with the rack, and the transmission connection is realized through the matching of the gear and the rack; in other embodiments, the bar-shaped rod 136 is further provided with a first synchronous belt and a second synchronous belt which are staggered in space, one end of the first synchronous belt is fixedly connected with the first end of the bar-shaped rod 136, the other end of the first synchronous belt is wound on an outer ring of the rotating wheel and fixed along the direction of the rotating wheel rotating towards the first end of the bar-shaped rod, one end of the second synchronous belt is fixedly connected with the second end of the bar-shaped rod 136, the other end of the second synchronous belt is wound on the outer ring of the rotating wheel and fixed along the direction of the rotating wheel rotating towards the second end of the bar-shaped rod, the rotating wheel is driven by the synchronous belt to realize transmission connection), the central shaft 134 is fixedly connected with the handheld part shell 10, the middle shaft 134 is rotatably connected with the rotating wheel 135 (specifically, the middle shaft 134 is coaxial with the rotating wheel 135 and rotatably connected through a bearing, and in other embodiments, the relative rotation of the two components can be realized through a shaft sleeve, clearance fit, lubrication material and other manners); the bar-shaped bar 136 is connected with the hand-held part shell 10 in a sliding way in the vertical direction; the force generating mechanism comprises a coil spring 137 and a coil spring shell 138, and the coil spring shell 138 is sleeved outside the central shaft 134 and is fixedly connected with the rotating wheel 135; the inner end of the coil spring 137 is fixedly connected with the middle shaft 134, and the outer end of the coil spring 137 is fixedly connected with the coil spring shell 138; in the technical scheme, the coil spring 137 with small moment change is used as an elastic part of the vertical damping mechanism 13, and in the vibration process, the force applied by the coil spring 137 to the rotating wheel 135 to support the load of the first end 131 of the vertical damping mechanism is approximately constant; the specific shock absorption process is as follows: at the initial moment, a load is mounted at the first end 131 of the vertical damping mechanism, and the gravity of the load drives the bar-shaped rod 136 to move downwards, so that the rotating wheel 135 and the coil spring shell 138 are driven to rotate, namely the coil spring 137 is compressed (the number of turns of the coil spring 137 is increased), and the resilience of the coil spring 137 supports the load; when vertical reciprocating vibration is applied (i.e., vertical force is generated at the second end 132 of the vertical damping mechanism), the vertical movement is converted into the movement of the coil spring housing 137 by the force transmission mechanism and the force generation mechanism to drive the rotating wheel 135 to rotate smoothly along the bar 136 without driving the first end 131 of the vertical damping mechanism (i.e., the load) to move in the vertical direction, so that the load is always in a balanced state in the vertical direction during vertical vibration.
The embodiment realizes the stability of the vertical damping mechanism in a non-use state through the stopping part, and is convenient for a user to store; and the characteristic that the wire 11 can be bent is utilized to respectively fix two ends of the wire 11, the clearance wiring groove 100 is additionally arranged between the bar-shaped rod 136 and the circuit board 12, the distance from the maximum stroke position of the bar-shaped rod 136 to the circuit board 12 through the clearance wiring groove 100 is calculated, the length of the wire is reserved, the wire 11 moves under the constraint of the clearance wiring groove under the working state of the vertical damping mechanism 13 (under the motion state of the bar-shaped rod 136 relative to the handheld part 1), and the wire 11 is not easy to wind, has short wiring distance and does not generate friction with other parts.
In some other embodiments, the specific structures and specific connection manners of the hand-held portion housing 10, the circuit board 12, the clearance wiring groove 100, the wire 11, the stopper, the support bracket 104, the bar-shaped rod 135, the cavity 103 and the vertical shock absorbing mechanism 13 in the above embodiments can be replaced by other manners, for example:
1. in terms of the handheld portion housing 10, the above embodiment only shows the splicing structure of the first housing 101 and the second housing 102 with the left-right symmetric structure, and may also be replaced by a splicing form of an up-down splicing structure and an asymmetric structure, or adopt a form of an integral structure with an opening at the upper end, and the like, which can facilitate the installation of components inside the handheld portion housing 10;
2. in terms of the circuit board 12, the circuit board 12 may also be installed inside the second housing 102 or outside the handheld portion housing 10, and the like, in the solution inside the second housing 102, the other end of the wire 11 is fixedly installed at one side of the bar-shaped rod 136 close to the second housing 102, the space-avoiding wiring groove 100 is fixedly installed between the bar-shaped rod 136 and the second housing 102, in the solution outside the handheld portion housing 10, the space-avoiding wiring groove 100 penetrates through the sidewall of the handheld portion housing 10 where the circuit board 12 is located, and the other end of the wire 11 is fixedly installed at one side of the bar-shaped rod 136 close to the circuit board 12;
3. in the aspect of the void-avoiding wiring groove 100, the void-avoiding wiring groove 100 of the above embodiment may be formed on the supporting frame 104 or the handle housing 10 according to the calculated size, and in the embodiment where the circuit board 12 is communicated with the space where the bar-shaped rod 136 is located, a fixing plate with the void-avoiding wiring groove 100 may be further added between the circuit board 12 and the bar-shaped rod 136, and the fixing plate is fixedly connected with the handle housing 10 or the supporting frame 104;
4. in terms of the wire 11, the wire 11 may also include only a power line or only a signal line; in the aspect of fixed connection of two ends, the two ends can be fixed in a welding mode, an inserting mode, a fastening piece mode, an adhesive mode and the like, the fixed end has a certain length and can better restrain the wire 11, and the wire 11 moves along the restrained direction when vibrating vertically;
5. in terms of the stopping portion, in other embodiments, some other snapping or locking structure may be used instead, for example, the telescopic rod is matched with the lock groove, the elastic lock catch is matched with the lock groove, and the like, which are not listed here; the fastening part can also be a fastener with certain elasticity, and the clamping part can also be two bulges along the vertical direction to form a locking groove matched with the fastener, namely, the braking elastic part, the pin shaft and the connecting rod of the stopping part are not necessary conditions; in addition, the positions of the buckling part and the clamping part can be interchanged; in the specific buckle mechanism of the above embodiment, the pin 140 may also be fixedly connected to the handheld portion housing 10, and the end of the connecting rod 143 is provided with a pin hole matched with the pin 140, so that the above-mentioned turning locking or unlocking effect can be achieved in the same way;
6. in terms of the supporting frame 104, the supporting frame 104 of the above embodiment is only used for better assembling the components inside the handheld portion 1, in other embodiments of the handheld portion shell 10, the supporting frame 104 may not be provided, and the components fixedly connected inside may be replaced by directly connecting with the handheld portion shell 10;
7. in the aspect of the bar-shaped rod 136, the sliding connection between the bar-shaped rod 136 and the handheld portion 1 may be replaced by other structures, for example, the top end of the handheld portion housing 10 is provided with an opening structure, the opening structure is in clearance fit with the bar-shaped rod 136, the bar-shaped rod 136 can be limited to only slide along the vertical direction relative to the handheld portion housing 10, or a lubricant is applied to a clearance between the opening structure and the bar-shaped rod 136, balls are laid, and the like, so that the stability of the vertical shock-absorbing mechanism 13 can be further ensured, and therefore, a sliding block is not necessary in some embodiments;
8. in the cavity 103, in some other embodiments, the bar 136 may be located at the side of the user's grip, and the bar 136 may have enough sliding space by providing through holes at the upper and lower ends of the handle housing 10.
9. In the aspect of the vertical damping mechanism 13, the vertical damping mechanism with the coil spring 137 may be replaced by a vertical damping mechanism with a spring, an involute wheel and an involute fit in the prior art, or a vertical damping mechanism with a spring and a gear rack of a variable speed transmission mechanism, and the specific connection mode of the vertical damping mechanism with the coil spring 137 may be replaced by the following structure:
as shown in fig. 6, the middle shaft 134 of the vertical shock-absorbing mechanism 13 is rotatably connected to the hand-held portion housing 10, the middle shaft 134 is in transmission connection with the rotating wheel 135 (which may be in fixed connection coaxially or in connection with a transmission element such as a gear), and the bar-shaped rod 136 is in sliding connection with the hand-held portion housing 10 in the vertical direction; the coil spring shell 138 is rotatably connected with the central shaft 134 (the central shaft 134 and the coil spring shell 138 are coaxial and rotatably connected through a bearing, or the relative rotation of the two components is realized through a shaft sleeve, a clearance fit and lubrication material adding mode and the like), the inner end of the coil spring 137 is fixedly connected with the central shaft 134, and the outer end of the coil spring 137 is fixedly connected with the coil spring shell 138; the coil spring shell 138 is fixedly connected with the hand-held part shell 10; the specific shock absorption process is as follows: at the initial moment, a load is mounted on the first end 131 of the vertical shock absorption mechanism, the gravity of the load drives the bar-shaped rod 136 to move downwards, so that the rotating wheel 135 and the middle shaft 134 are driven to rotate, namely, the coil spring 137 is compressed (the number of turns of the coil spring 137 is increased), and the resilience of the coil spring 137 supports the load; when vertical reciprocating vibration is applied (i.e., the vertical damping mechanism second end 132 generates a vertical force), the vertical movement is converted into the movement of the central shaft 134 through the force transmission mechanism and the force generation mechanism to drive the rotating wheel 135 to rotate smoothly along the bar 136 without driving the vertical damping mechanism first end 131 (i.e., the load) to move in the vertical direction, so that the load is always in a balanced state in the vertical direction during the vertical vibration.
In another embodiment, on the basis of the above embodiments, as shown in fig. 3, the bottom end of the cavity 103 is provided with an elastic pad 1031, when the latch 141 is engaged with the boss 142, the elastic pad 1031 is in interference fit with the bottom end of the bar-shaped rod 136, that is, when the stopper is in the locked state, the bar-shaped rod 136 is in interference fit with the elastic pad 1031, and there is no movement gap between the bar-shaped rod 136 and the hand-held portion 1, so that the stability of the locked state can be further improved.
In another embodiment, based on the above embodiments, as shown in fig. 1, 2 and 5, the stopper further includes a lever 145 engaged with the link 143, specifically, the lever 145 is slidably connected to the second housing 102 and at least partially located outside the second housing 102, which is convenient for a user to operate, a side wall of the link 143 is provided with a chute 1430 engaged with the lever 145, two ends of the chute 1430 are respectively provided with a first stopper slot 1431 and a second stopper slot 1432 engaged with the lever 145, the chute 1430 is inclined along a rotation direction of the link 143, when the lever 145 slides to an end of the chute 1430 far away from the boss 142 (i.e., the first stopper slot 1431), the link 143 drives the lock catch 141 to move towards the boss 142 under the action of the stopper elastic member 144, and when the lever 145 slides to an end of the chute 1430 near the boss 142 (i.e., the second stopper slot 1432), the link 143 presses the stopper elastic member 144, the catch 141 moves away from the boss 142. The first and second locking notches 1431 and 1432 are used to stably lock or unlock the shift lever 145, and in other embodiments, two limit positions may be provided between the shift lever 145 and the handle housing 10 to achieve the above-mentioned effect.
In another embodiment, on the basis of the above embodiments, as shown in fig. 2 and fig. 7, the central shaft 134 is fixedly connected with a coaxial ratchet wheel 133, the hand-held part 1 is provided with a pawl 130 which is matched with a ratchet wheel 133, in particular, the pawl 130 limits the rotation of the ratchet wheel 133 (namely, a middle shaft 134) to the direction of the resilience force of a coil spring 137, therefore, the fixed connection between the central shaft 134 and the hand-held part 1 is realized through the matching of the ratchet wheel 133 and the pawl 130, and in addition, the rotation of the ratchet wheel 133 can be adjusted to drive the coil spring 137 to tighten or loosen, i.e., the position at which the bar 136 is engaged with the rotary wheel 135 at the initial moment, can be adjusted, it is noted that, since the vertical movement includes both upward and downward directions, at the initial moment (i.e. after the load is installed), the rotating wheel 135 can be adjusted to be matched with the position approximately in the middle of the bar-shaped rod 136 through the ratchet wheel 133, and the vertical damping mechanism 13 can better damp the vertical upward and downward directions.
In another embodiment, on the basis of the above embodiments, as shown in fig. 1 and fig. 2, the side wall of the ratchet wheel 133 is provided with a thread protrusion 1331 coaxial therewith; the vertical shock absorbing mechanism 13 further comprises a limit nut 1330 matched with the threaded boss 1331 and a cover plate 1332 fixedly connected with the hand-held part shell 10; the cover plate 1332 is provided with a limit nut guide groove 1333, the outer ring of the limit nut 1330 and the inner ring of the limit nut guide groove 1333 are provided with a limit structure matched with each other, and the limit structure can be specifically matched with a protrusion and a groove, a polygon, an ellipse and other shapes. The limiting structure of the limiting nut 1330 and the limiting nut guide groove 1333 can limit the movement of the limiting nut 1330 in the guide groove along the axial direction thereof without rotating; since the ratchet wheel 133 drives the threaded protrusion 1331 to rotate and simultaneously drives the limit nut 1330 to move along the axial direction of the limit nut guide slot 1333 during the adjustment process, the limit nut 1330 can move to the threaded end of the threaded protrusion 1331 in the first direction and to the end of the limit nut guide slot 1333 (i.e., the inner wall of the cover plate 1332) in the second direction, the embodiment can determine the two positions according to the specific stroke of the coil spring 137, thereby protecting the coil spring 137 during the adjustment process.
In another embodiment, on the basis of the above embodiment, the vertical damping mechanism further includes a position sensor for measuring a vertical position of a first end of the vertical damping mechanism, a controller and a motor, wherein the controller receives a vertical position signal from the position sensor and generates an output signal for controlling the motor to operate, the motor includes a rotating end provided with a motor shaft and a fixed end carrying a motor core, the rotating end is coaxially and fixedly connected with the rotating wheel, and the fixed end is fixedly connected with the handheld portion housing; the position sensor is specifically a sensor with an Inertial Measurement Unit (IMU) and is used for measuring the vertical position of the first end 131 (load) of the vertical damping mechanism, the controller receives a vertical position signal from the position sensor and generates an output signal for controlling the action of the motor, and specifically, the position sensor is fixedly installed at the first end 131 of the vertical damping mechanism, and the controller is installed inside the motor and is in communication connection with the motor; the motor comprises a rotating end provided with a motor shaft and a fixed end carrying a motor iron core, the rotating end is fixedly connected with a rotating wheel 135, specifically, the rotating wheel 135 is coaxially and fixedly connected with the motor shaft, and the fixed end is fixedly connected with the handheld part shell 10; in this embodiment, the torque of the motor drives the rotating wheel 135 and the bar rod 136 to move relatively, so that the first end 131 of the vertical damping mechanism moves along the direction opposite to the vibration direction, and thus the first end 131 of the vertical damping mechanism is positioned at the determined position in the vertical direction, which can further accurately control the first end 131 of the vertical damping mechanism to be always positioned at the determined position in the vertical direction.
Specifically, when the first end 131 of the vertical damping mechanism vibrates vertically (for example, due to slight fluctuation caused by the user's step), the position sensor acquires the actual vertical position of the load and then transmits a signal of the actual vertical position to the controller, the position sensor can acquire the actual vertical position of the load in real time or periodically and transmit the actual vertical position to the controller, the controller has preset vertical position information therein and judges whether the actual vertical position is deviated (different) from the preset vertical position based on the received signal of the actual vertical position; when the actual vertical position is higher than the preset vertical position, that is, it means that the first end 131 of the vertical shock-absorbing mechanism has a rapid downward falling motion, at this time, the position controller drives the rotating wheel 135 to rotate upward along the bar-shaped rod 136 through the rotation of the driving motor, so that the bar-shaped rod 136 moves downward relative to the handheld portion housing 10, thereby offsetting the shake of the first end 131 of the vertical shock-absorbing mechanism in the vertical direction and positioning the load at a certain position in the vertical direction; similarly, when the actual vertical position of the first end 131 of the vertical shock absorbing mechanism is lower than the preset vertical position, that is, it means that the first end 131 of the vertical shock absorbing mechanism has a rapid downward falling motion, at this time, the position controller drives the rotating wheel 135 to rotate downward along the bar-shaped rod 136 through the rotation of the driving motor, so that the bar-shaped rod 136 moves upward relative to the handheld portion housing 10, which can also counteract the shaking of the first end 131 of the vertical shock absorbing mechanism in the vertical direction and position the load at the determined position in the vertical direction. The mode of motor active damping and coil spring passive damping is adopted in the embodiment, and compared with the mode of singly adopting passive stability augmentation, the mode of actively augmenting stability by utilizing the position sensor, the controller and the motor has shorter response time, and can carry out accurate displacement compensation.
In another embodiment, on the basis of the above embodiments, as shown in fig. 2 and 5, the stopper further includes a boat switch 146 cooperating with the controller, and the controller receives the first direction signal and the second direction signal of the boat switch 146 and respectively generates a control signal for controlling the motor to drive the rotating wheel 135 to rotate upward along the bar-shaped bar 136 and to drive the rotating wheel 135 to rotate downward along the bar-shaped bar 136. Particularly, the bar-shaped rod 136 is automatically recovered and the vertical damping mechanism is locked by driving a motor to rotate through a ship-shaped switch 146; when the controller receives a first direction signal of the ship-shaped switch 146, the generated control motor drives the rotating wheel 135 to rotate upwards along the bar-shaped rod 136, namely, the bar-shaped rod 136 is recovered into the cavity 103, and when the boss 142 is matched with the lock catch 141, automatic locking is realized under the action of the stop elastic piece 144; when the controller receives a second direction signal of the ship-shaped switch 146, the generated control motor drives the rotating wheel 135 to rotate downwards along the bar-shaped rod 136, at this time, the operating lock catch 141 is separated from the boss 142, and the bar-shaped rod 136 moves upwards relative to the handheld portion 1, so that unlocking is realized. In addition, when vertical damper carries on the triaxial cloud platform, this embodiment can realize automatic switch-over triaxial mode and four-axis mode.
In another embodiment, as shown in fig. 2 and 5, the shift lever 145 not only can be engaged with the connecting rod 143 to unlock and lock the bar 136, but also the shift lever 145 can trigger the first direction signal and the second direction signal of the ship switch 146 in the above two states to engage with the ship switch. In the using process, when the shifting lever 145 is located in the first direction signal, the motor drives the rotating wheel 135 to rotate upwards along the bar-shaped rod 136, the lock catch 141 is subjected to the elastic force of the stopping elastic piece 144, the bar-shaped rod 136 moves to the position where the boss 142 is matched with the lock catch 141, the lock catch 141 is automatically matched with the boss 142, when the shifting lever 145 is located in the second direction signal, the shifting lever 145 drives the lock catch 141 to move towards the opposite direction of the elastic force of the stopping elastic piece 144, namely, the shifting lever 142 is separated, and the bar-shaped rod 136 moves upwards relative to the handheld portion 1, so that automatic unlocking is achieved.
In another embodiment, on the basis of the above embodiments, as shown in fig. 2, 8 to 11, the handheld portion 1 further includes a quick release seat 15 connected to the first end 131 of the vertical shock absorbing mechanism; an outer ring of the quick-release seat 15 is provided with an open slot 150 and locking screws 151 connected with two sides of the open slot 150; the handheld portion 10 adopts the quick-release base 15 similar to a pipe clamp structure, and can be matched with the fixed end 211 of the first motor of the pan/tilt head 2 in the following embodiment, the open slot 150 of the outer ring of the quick-release base 14 is matched with the locking screw 151 (the open slot 150 is tightened or loosened by using the locking screw 151), and the inner diameter of the quick-release base 15 can be adjusted to clamp or loosen the fixed end 211 of the first motor of the pan/tilt head 2, so that the quick assembly or quick disassembly is realized, the universality is good, and most detachable pan/tilt heads can be assembled. In a further embodiment, a second silica gel layer 32 is disposed between the quick release seat 15 and the first end 131 of the vertical shock absorbing mechanism (top end of the bar-shaped rod 136), so as to isolate the load of the first end 131 of the vertical shock absorbing mechanism from the handheld portion 1, thereby reducing the influence of the vibration of the vertical shock absorbing mechanism 13 on the load, and further improving the shooting stability. In other embodiments, the first silica gel layer 31 may be further added at the bottom of the quick release base 15, or both of the two places may be provided with silica gel layers.
In another embodiment, on the basis of the above embodiments, as shown in fig. 8 to 10, the hand-held portion 1 further includes an IMU board 16; the side wall of the quick release seat 15 is provided with an IMU plate mounting groove 160 and an end cover 161 matched with the IMU plate mounting groove 160, the IMU plate 16 is connected with the end cover 161 through a damping ball 162, and the end cover 161 is fixedly connected with the side wall of the quick release seat 15. Wherein, the IMU board 16 is a circuit board of the inertial measurement unit, and is used for the vertical position of the first end 131 of the vertical damping mechanism, and the controller receives the vertical position signal from the IMU board 16 and generates an output signal for controlling the action of the motor in the vertical damping mechanism; in the embodiment, the IMU plate 16 is isolated from the quick-release seat 15 by using the plurality of damping balls 162 (silica gel balls), so that the influence of vibration on the IMU plate 16 is reduced, and the detection precision of the IMU plate 16 is improved.
In another embodiment, a handheld stabilizer is provided, as shown in fig. 8 to 11, including the handheld portion 1 of the above embodiment and a pan/tilt head 2 located at the first end 131 of the vertical shock absorbing mechanism, where the pan/tilt head 2 is connected to the handheld portion 1 through a quick release seat 15, the pan/tilt head 2 includes a first motor 21, a second motor 22, a third motor 23 and a load platform 24, which are connected in sequence, the first motor 21 is a motor at the lowest position of the pan/tilt head, and a fixed end 211 of the first motor is inserted into the quick release seat 15 and is fixedly connected through a locking screw 151; in this embodiment, the handheld stabilizer adopts the tube clamp type quick release seat 15, the quick release seat 15 is provided with the open slot 150, the locking screw 151 is reused to tighten the open slot 150 so as to clamp the fixed end 211 of the first motor, and when the pan/tilt head 2 is to be taken down, the locking screw 151 is unscrewed to be taken down, so that the purposes of quick release and quick assembly are achieved.
This embodiment exemplarily shows that the pan/tilt head 2 is a three-axis pan/tilt head structure using 3 motors, and in other embodiments or practical applications, the pan/tilt head 2 may also be a single-axis pan/tilt head with 1 motor, a two-axis pan/tilt head with 2 motors, and the like.
In another embodiment, on the basis of the above embodiments, the quick release base 15 and the first motor 21 are provided with conductive contacts which are matched with each other, as shown in fig. 8 and 11, the bottom of the quick release base 15 is provided with a first contact 152 which penetrates through the bottom surface thereof, the first contact 152 is connected with the wire 11, the bottom of the first motor 21 is provided with a second contact 210, and after the installation is completed, the first contact 152 and the second contact 210 are matched with each other to realize power supply and/or signal transmission; in the embodiment, a power supply can be arranged in the handheld part 1, and power supply and signal transmission for the components of the holder 2, such as a motor, an encoder, a circuit board and the like, can be realized by utilizing a conductive electric shock. In addition, in other embodiments, power supply and signal transmission can be realized by a plug mode, or a power supply and the like are distributed in a connecting arm of the holder 2 in the prior art; in this embodiment, the handheld portion 1 may be provided with a control panel and buttons for adjusting the motor of the pan/tilt head 2 or communicating with the camera of the loading table 24. In other embodiments without a conductive or communication structure, the cradle head 2 or the photographing device may be controlled in a wireless manner such as bluetooth or WIFI.
In another embodiment, on the basis of the above embodiment, the inner ring of the quick release seat 15 and the outer ring of the fixed end 211 of the first motor are provided with a matched limit structure; specifically, as shown in fig. 8 and 11, the limiting structure is a limiting groove located in an inner ring of the quick release base 15 and a limiting protrusion located in an outer ring of the fixed end 211 of the first motor, wherein the limiting protrusion and the limiting groove are arranged along a sliding direction of the mounting cradle head 2, and during mounting, the limiting protrusion is matched with the limiting groove, so that quick mounting and quick dismounting of the handheld stabilizer can be realized on the premise of ensuring an accurate relative mounting position of the cradle head 2 and the handheld portion 1, and the fixed end 211 of the first motor can be limited to rotate inside the quick release base 11; in other embodiments, the limiting structure can be replaced by other methods, for example, the limiting groove is disposed on the outer ring of the fixed end 211 of the first motor, the limiting protrusion is disposed on the inner ring of the quick release seat 15, and the limiting can be performed by the way of the elastic steel ball and the steel ball groove.
As shown in fig. 8 to 10, on the basis of the above embodiment, the inner ring of the quick release seat 15 and the outer ring of the fixed end 211 of the first motor are provided with a matching anti-disengaging structure; specifically, the anti-tripping structure comprises an anti-tripping part and an anti-tripping part, wherein the anti-tripping part comprises a first anti-tripping device 171 and a second anti-tripping device 172, and the anti-tripping part comprises two anti-tripping slots which are positioned on the outer ring of the fixed end 211 of the first motor and are matched with the first anti-tripping device 171 and the second anti-tripping device 172; the side wall of the quick release base 15 is provided with a through anti-tripping mounting groove 170, the first anti-tripping device 171 and the second anti-tripping device 172 are rotatably connected with the anti-tripping mounting groove 170 through a first pin shaft and a second pin shaft, respectively, one end of the first anti-tripping device 171 and one end of the second anti-tripping device 172 are located outside the quick release base 15, an anti-tripping elastic member (specifically, a spring, and may also be an elastic member such as a rubber block) is arranged between the end parts of the first anti-tripping device and the second anti-tripping device, and the other end of the first anti-tripping device penetrates through the anti-tripping mounting groove 170, and is provided with an anti-tripping hook (as shown in fig. 8, a first anti-tripping hook 1711 located at the end part of the first anti-tripping device 171 is provided with an anti-tripping groove); the two anti-tripping devices are respectively positioned at two sides of the anti-tripping mounting groove 170, the two anti-tripping devices are always in a fastening state by using the anti-tripping elastic piece 173 at the other end, and the anti-tripping devices are provided with anti-tripping hooks matched with the anti-tripping clamping grooves, so that when the holder 2 is placed at the bottom of the quick-release seat 11, the anti-tripping grooves can be buckled by the anti-tripping hooks, and the anti-tripping effect of the holder 2 can be realized; in some other embodiments, the anti-disengaging structure can also cooperate through an anti-disengaging portion and an anti-disengaging portion, wherein the elastic element can be a tension spring, and the effort of the tension spring makes the anti-disengaging hook of the anti-disengaging portion always have a tendency to move towards the direction of the anti-disengaging portion, i.e. the anti-disengaging effect can also be realized, or the anti-disengaging structure can also be anti-disengaging through snap-fit modes such as elastic steel balls and steel ball grooves, and the like, and further limitation is not made here.
According to the handheld part of the stabilizer with the vertical damping mechanism and the handheld stabilizer, the stopping part is additionally arranged on the part connected with the first end and the second end of the vertical damping mechanism 13, and the first end and the second end of the damping mechanism 13 are fixed through the stopping part under the condition of storage or non-use, so that the relative rest of the first end and the second end is realized, and the storage of a user can be facilitated; the wire 11 is inserted into the clearance wiring groove 100, and in the working state of the vertical damping mechanism 13 (in the state that the bar-shaped rod 136 moves relative to the handheld portion 1), the wire 11 moves under the restraint of the clearance wiring groove 100, so that the wire is not easy to wind, the wiring distance is short, and friction is not generated between the wire and other parts; and the quick-release base 15 with a structure similar to a pipe clamp is matched with the fixed end of the motor at the lowest part of the holder 2, so that the quick-release or quick-release can be realized, the universality is better, and most of the detachable holder 2 can be assembled.
Claims (23)
1. The handheld portion of the stabilizer with the vertical damping mechanism is characterized in that the handheld portion (1) comprises a handheld portion shell (10), the vertical damping mechanism (13), a circuit board (12) fixedly connected with the handheld portion shell (10), a clearance wiring groove (100) vertically arranged, a wire (11) and a stopping portion;
the vertical damping mechanism comprises a first end and a second end which move relatively and a bar-shaped rod (136) fixedly connected with the first end (131) of the vertical damping mechanism, and the second end (132) of the vertical damping mechanism is fixedly connected with the shell (10) of the handheld part;
the stopping part comprises a buckling part and a clamping part which are matched with each other and used for locking the relative position of the bar-shaped rod (136) and the handheld part (1);
the space-avoiding wiring groove (100) is located between the circuit board (12) and the strip-shaped rod (136), one end of the wire (11) is fixedly arranged on the circuit board (12), and the other end of the wire penetrates through the space-avoiding wiring groove (100) and is fixedly arranged on one side, close to the circuit board (12), of the strip-shaped rod (136).
2. The stabilizer handheld portion with the vertical shock absorption mechanism is characterized in that a cavity (103) for accommodating a strip-shaped rod (136) to slide is formed inside the handheld portion shell (10); the buckling part comprises a lock catch (141), and the clamping part is a boss (142) matched with the lock catch; the lock catch (141) is positioned at the handheld part, and the lug boss (142) is positioned on the bar-shaped rod (136); when the strip-shaped rod (136) slides to the preset position of the cavity (103), the lock catch (141) is buckled on the boss (142).
3. The stabilizer handheld portion with the vertical shock absorption mechanism is characterized in that the bottom end of the cavity (103) is provided with an elastic cushion block (1031), and when the lock catch is matched with the boss, the elastic cushion block (1031) is in interference fit with the bottom end of the strip rod (136).
4. The handheld portion of a stabilizer with a vertical shock absorption mechanism as claimed in claim 2, wherein the buckling portion further comprises a connecting rod (143) and a pin (140), the latch (141) and the pin (140) are respectively located at two ends of the connecting rod (143), and the latch (141) is pivotably connected with the handheld portion through the pin (140).
5. The stabilizer handheld portion with the vertical shock absorption mechanism is characterized in that the stopping portion further comprises a stopping elastic member (144), and the elastic force of the stopping elastic member (144) is used for driving the lock catch (141) to turn towards the boss (142) along the pin shaft (140).
6. A stabilizer handpiece with a vertical shock-absorbing mechanism according to claim 5, characterized in that said stop further comprises a lever (145) cooperating with a connecting rod (143), said lever (145) being slidingly associated with the handpiece housing (10) and being located at least partially outside the handpiece.
7. The stabilizer handheld portion with the vertical shock absorption mechanism is characterized in that the side wall of the connecting rod (143) is provided with a chute (1430) matched with the shifting rod (145), and the two ends of the chute (1430) are respectively provided with a first stop catch groove (1431) and a second stop catch groove (1432) matched with the shifting rod (145).
8. The stabilizer handle with the vertical shock absorption mechanism is characterized in that one side, close to a circuit board (12), of the bar-shaped rod (136) is provided with a wiring groove (110) and a first line pressing block (111), and the circuit board (12) is provided with a second line pressing block (112).
9. The stabilizer handheld portion with the vertical shock absorption mechanism is characterized in that the vertical shock absorption mechanism further comprises a force transmission mechanism and a force generation mechanism;
the force transmission mechanism comprises a middle shaft (134) and a rotating wheel (135) in transmission connection with a strip-shaped rod (136), the middle shaft (134) is in rotation connection with the shell of the handheld part, the middle shaft (134) is in transmission connection with the rotating wheel (135), and the strip-shaped rod (136) is in sliding connection with the shell of the handheld part in the vertical direction;
the force generating mechanism comprises a coil spring (137) and a coil spring shell (138), the coil spring shell (138) is rotatably connected with the middle shaft (134), the inner end of the coil spring (137) is fixedly connected with the middle shaft (134), and the outer end of the coil spring (137) is fixedly connected with the coil spring shell (138); the coil spring housing (138) is fixedly connected with the hand-held part housing.
10. The stabilizer handheld portion with the vertical shock absorption mechanism is characterized in that the vertical shock absorption mechanism further comprises a force transmission mechanism and a force generation mechanism;
the force transmission mechanism comprises a middle shaft (134) and a rotating wheel (135) in transmission connection with a strip-shaped rod (136), the middle shaft (134) is fixedly connected with the shell of the handheld part, and the middle shaft (134) is in rotating connection with the rotating wheel (135); the strip-shaped rod (136) is connected with the handheld part shell in a sliding mode in the vertical direction;
the force generating mechanism comprises a coil spring (137) and a coil spring shell (138), and the coil spring shell (138) is sleeved outside the middle shaft (134) and is fixedly connected with the rotating wheel (135); the inner end of the coil spring (137) is fixedly connected with the middle shaft (134), and the outer end of the coil spring is fixedly connected with the coil spring shell (138).
11. The stabilizer hand-held portion with the vertical shock absorption mechanism is characterized in that a coaxial ratchet wheel (133) is fixedly connected to the middle shaft (134), and the hand-held portion is provided with a pawl (130) matched with the ratchet wheel (133).
12. Stabilizer handpiece with vertical shock-absorbing mechanism according to claim 11, characterized in that the side wall of the ratchet (133) is provided with a threaded projection (1331) coaxial therewith; the vertical shock absorption mechanism further comprises a limit nut (1330) matched with the threaded protrusion (1331) and a cover plate (1332) fixedly connected with the handheld part; the cover plate (1332) is provided with a limiting nut guide groove (1333), and the outer ring of the limiting nut (1330) and the inner ring of the limiting nut guide groove (1333) are provided with a limiting structure matched with each other.
13. The handheld portion of stabilizer of vertical damper of claim 10, characterized in that, vertical damper still includes position sensor, controller and the motor that is used for measuring vertical position of vertical damper first end, wherein, the controller receives the vertical position signal that comes from position sensor and generates the output signal that is used for controlling the motor action, the motor includes the rotation end that is equipped with the motor shaft and carries on the stiff end of motor core, rotate end and the coaxial fixed connection of rotating wheel, stiff end and handheld portion casing fixed connection.
14. The stabilizer handheld portion with the vertical shock absorption mechanism of claim 13, wherein the buckling portion comprises a lock catch (141), and the clamping portion is a boss (142) matched with the lock catch; the lock catch (141) is positioned at the handheld part, and the boss (142) is positioned on the bar-shaped rod (136); when the bar-shaped rod (136) slides to the preset position of the cavity (103), the lock catch (141) is buckled on the boss (142); the stopping part also comprises a stopping elastic piece (144), and the elasticity of the stopping elastic piece (144) is used for driving the lock catch (141) to move towards the boss (142);
the stopping part further comprises a boat-shaped switch (146) matched with the controller, and the controller receives a first direction signal and a second direction signal of the boat-shaped switch and respectively generates a control motor to drive the rotating wheel (135) to rotate upwards along the bar-shaped rod (136) and drive the rotating wheel (135) to rotate downwards along the bar-shaped rod (136).
15. The stabilizer handle with vertical shock absorbing mechanism of claim 14, characterized in that the boat switch (146) further comprises a toggle member, the toggle member further cooperating with the buckle portion.
16. The stabilizer handheld portion with the vertical shock absorption mechanism is characterized in that the handheld portion further comprises a quick release seat (15) connected with a first end (131) of the vertical shock absorption mechanism; an open slot (150) and locking screws (151) connected with two sides of the open slot (150) are arranged on the outer ring of the quick-release seat (15).
17. The handheld portion of a stabilizer with a vertical shock absorption mechanism according to claim 16, characterized in that a silica gel layer is further disposed between the quick release seat (15) and the first end (131) of the vertical shock absorption mechanism and/or at the bottom of the quick release seat (15).
18. The stabilizer handle with vertical shock absorbing mechanism of claim 16, characterized in that the handle further comprises an IMU plate (16); the side wall of quick detach seat (15) is equipped with IMU board mounting groove (160) and reaches and IMU board mounting groove (160) matched with end cover (161), IMU board (16) are connected with end cover (161) through shock attenuation ball (162), end cover (161) and quick detach seat (15) lateral wall fixed connection.
19. A hand-held stabilizer, characterized in that it comprises a stabilizer hand-held portion according to any one of claims 1 to 18, a head (2) mounted at a first end (131) of the vertical shock-absorbing mechanism.
20. The handheld stabilizer of claim 19, wherein the first end (131) of the vertical shock absorbing mechanism is detachably connected with the pan/tilt head (2) through a quick release seat (15), an outer ring of the quick release seat (15) is provided with an open slot (150) and locking screws (151) connected with two sides of the open slot (150); the quick-release base (15) and the fixed end of the motor at the lowest part of the holder (2) are provided with matched conductive contacts.
21. The handheld stabilizer of claim 20, wherein the inner ring of the quick release seat (15) and the outer ring of the fixed end of the motor at the lowest part of the holder (2) are provided with matched limit structures.
22. The handheld stabilizer of claim 20, wherein the inner ring of the quick release seat (15) and the outer ring of the fixed end of the lowest motor of the pan/tilt head (2) are provided with matched anti-disengaging structures.
23. The hand-held stabilizer according to claim 22, characterized in that the anti-trip structure comprises an anti-trip portion and an anti-trip portion, the anti-trip portion comprising a first anti-trip element (171) and a second anti-trip element (172); the side wall of the quick-release seat (15) is provided with a through anti-tripping mounting groove (170), the first anti-tripping device (171) and the second anti-tripping device (172) are respectively and rotatably connected with the anti-tripping mounting groove (170) through a first pin shaft and a second pin shaft, one end of the first anti-tripping device (171) and one end of the second anti-tripping device (172) are positioned outside the quick-release seat (15), an anti-tripping elastic part is arranged between the end parts of the first anti-tripping device and the second anti-tripping device, and the other end of the first anti-tripping device and the second anti-tripping device penetrate through the anti-tripping mounting groove (170) and are respectively provided with an anti-tripping hook; the anti-drop clamping part comprises a fixed end outer ring of a motor located at the lowest part of the holder (2) and two anti-drop clamping grooves matched with the anti-drop hooks.
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CN202110348712.2A CN113124304B (en) | 2021-03-31 | 2021-03-31 | Stabilizer handheld portion with vertical damping mechanism and handheld stabilizer |
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CN113124304B true CN113124304B (en) | 2022-05-03 |
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WO2023035146A1 (en) * | 2021-09-08 | 2023-03-16 | 深圳市大疆创新科技有限公司 | Gimbal assembly, handheld gimbal, photographic assembly, and movable platform |
WO2024060104A1 (en) * | 2022-09-21 | 2024-03-28 | 深圳市大疆创新科技有限公司 | Gimbal, gimbal control method and device, and storage medium |
WO2024060158A1 (en) * | 2022-09-22 | 2024-03-28 | 深圳市大疆创新科技有限公司 | Control method and apparatus for stability augmentation apparatus, and computer storage medium |
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