阅读说明：本技术 一种电力电缆用高空作业设备 (Aerial working equipment for power cable ) 是由 张秀荣 于 2020-07-10 设计创作，主要内容包括：本发明涉及一种高空作业设备,更具体的说是一种电力电缆用高空作业设备,包括行进机构、一段升高机构、二段升高机构、绕线和传送物料机构,设备能够自动行进,设备能够将操作台进行升高,设备能够在操作台二段升高时保证操作台的相对位置稳定并减少风对设备的影响,设备能够传送物料,设备能够将操作后的电缆线缠绕起来,行进机构与一段升高机构连接,一段升高机构与二段升高机构连接,二段升高机构与绕线和传送物料机构连接,绕线和传送物料机构与一段升高机构连接。(The invention relates to high-altitude operation equipment, in particular to high-altitude operation equipment for a power cable, which comprises a travelling mechanism, a first-section lifting mechanism, a second-section lifting mechanism and a winding and material conveying mechanism, wherein the equipment can automatically travel, the equipment can lift an operation table, the equipment can ensure that the relative position of the operation table is stable and reduce the influence of wind on the equipment when the operation table is lifted in a second section, the equipment can convey materials, the equipment can wind the operated cable, the travelling mechanism is connected with the first-section lifting mechanism, the first-section lifting mechanism is connected with the second-section lifting mechanism, the second-section lifting mechanism is connected with the winding and material conveying mechanism, and the winding and material conveying mechanism is connected with the first-section lifting mechanism.)

1. The utility model provides a high altitude construction equipment for power cable, includes travel mechanism (1), one section rising mechanism (2), two-section rising mechanism (3), wire winding and conveying material mechanism (4), its characterized in that: the travelling mechanism (1) is connected with the first section lifting mechanism (2), the first section lifting mechanism (2) is connected with the second section lifting mechanism (3), the second section lifting mechanism (3) is connected with the winding and material conveying mechanism (4), and the winding and material conveying mechanism (4) is connected with the first section lifting mechanism (2).

2. The aerial work apparatus for power cables as claimed in claim 1, wherein: the travelling mechanism (1) comprises a travelling motor (1-1), a travelling motor shaft (1-2), a travelling belt (1-3), a travelling wheel shaft (1-4), a mounting side plate (1-5), a travelling wheel (1-6), an equipment supporting plate (1-7) and a motor mounting plate (1-8), wherein the travelling motor (1-1) is connected with the travelling motor shaft (1-2), the travelling motor shaft (1-2) is in friction connection with the travelling belt (1-3), the travelling belt (1-3) is in friction connection with the travelling wheel shaft (1-4), the travelling wheel shaft (1-4) is in bearing connection with the mounting side plate (1-5), the mounting side plate (1-5) is connected with the equipment supporting plate (1-7), the motor mounting plate (1-8) is connected with the travelling motor (1-1), the traveling wheels (1-6) are connected with the traveling wheel shafts (1-4).

3. The aerial work apparatus for power cables as claimed in claim 1, wherein: the first-section lifting mechanism (2) comprises a lifting motor mounting plate (2-1), a lifting motor (2-2), a lifting motor shaft (2-3), a lifting threaded wheel (2-4), a threaded connecting plate (2-5), a threaded shaft (2-6), a threaded shaft limiting plate a (2-7), a threaded shaft limiting plate b (2-8), a push-pull connecting column (2-9), a push-pull rod (2-10), a push-pull shaft (2-11), a push-pull shaft bearing ring (2-12), an operating plate a (2-13), a push-pull shaft sliding groove (2-14), a sliding plate a (2-15), a sliding plate b (2-16), a sliding limiting block a (2-17), a sliding limiting block b (2-18), a sliding plate c (2-19), A sliding plate b connecting block (2-20), an operating plate b connecting plate (2-21), an operating plate b (2-22), a material conveying connecting plate (2-23), an operating plate limiting block (2-24), an operating plate limiting shaft (2-25), an operating plate limiting plate (2-26) and an operating plate limiting spring (2-27), a lifting motor mounting plate (2-1) is connected with a lifting motor (2-2), the lifting motor (2-2) is connected with a lifting motor shaft (2-3), the lifting motor shaft (2-3) is connected with a lifting threaded wheel (2-4), the lifting threaded wheel (2-4) is in threaded connection with a threaded shaft (2-6), a threaded connecting plate (2-5) is in bearing connection with the lifting motor shaft (2-3), the threaded shaft (2-6) is in threaded connection with the threaded connecting plate (2-5), the device comprises a threaded shaft (2-6) limiting plate a (2-7) and a threaded shaft limiting plate b (2-8), wherein the threaded shaft limiting plate a (2-7) is connected with a device supporting plate (1-7), the threaded shaft limiting plate b (2-8) is in bearing connection with the threaded shaft (2-6), a push-pull connecting column (2-9) is connected with a threaded connecting plate (2-5), a push-pull rod (2-10) is in bearing connection with the push-pull connecting column (2-9), a push-pull shaft (2-11) is in bearing connection with the push-pull rod (2-10), a push-pull shaft bearing ring (2-12) is in bearing connection with the push-pull shaft (2-11), an operating plate a (2-13) is connected with the push-pull shaft bearing ring (2-12), a push-pull shaft sliding chute (2-14) is in sliding connection with the push-pull shaft (2-11, a sliding plate a (2-15) is connected with a sliding groove (2-14) of a push-pull shaft, a sliding plate b (2-16) is connected with the sliding plate a (2-15) in a sliding way, a sliding limiting block a (2-17) is connected with the sliding plate a (2-15), a sliding limiting block b (2-18) is connected with the sliding plate b (2-16), a sliding plate c (2-19) is connected with the sliding plate b (2-16) in a sliding way, a connecting block (2-20) of the sliding plate b is connected with the sliding plate b (2-16), a connecting plate (2-21) of an operating plate b is pressed on the operating plate a (2-13) and is connected with an operating plate b (2-22), the operating plate b (2-22) is connected with a material conveying connecting plate (2-23), a limiting block (2-24) of the operating plate is connected with a limiting shaft (2-25, an operation plate limiting shaft (2-25) is connected with an operation plate limiting plate (2-26) in a sliding mode, the operation plate limiting plate (2-26) is connected with an operation plate b (2-22), an operation plate limiting spring (2-27) is sleeved on the operation plate limiting shaft (2-25), limiting and operation plate limiting blocks (2-24) are connected with the operation plate limiting plate (2-26), a lifting motor mounting plate (2-1) is connected with an equipment supporting plate (1-7), a threaded connecting plate (2-5) is connected with the equipment supporting plate (1-7), the operation plate b (2-22) is connected with a push-pull shaft sliding groove (2-14) in a sliding mode, an operation plate b (2-22) is connected with the push-pull shaft sliding groove (2-14) in a sliding mode, and an operation plate b (2-22) is connected with a sliding plate a (2-15) in a sliding mode, the operation plates b (2-22) are connected with the sliding plates b (2-16) in a sliding mode, and the operation plates b (2-22) are connected with the sliding plates c (2-19) in a sliding mode.

4. The aerial work apparatus for power cables as claimed in claim 1, wherein: the two-section lifting mechanism (3) comprises a linkage motor (3-1), a linkage motor shaft (3-2), a belt a (3-3), a transmission shaft a (3-4), a transmission wheel a (3-5), a belt b (3-6), a transmission shaft b (3-7), a transmission wheel b (3-8), a transmission shaft c (3-9), a transmission wheel c (3-10), a linkage sliding plate (3-11), a linkage sliding limiting plate (3-12), a two-section limiting connecting plate a (3-13), a two-section limiting connecting shaft (3-14), a two-section limiting connecting plate b (3-15), a two-section limiting connecting plate c (3-16), a two-section limiting spring (3-17), a belt c (3-18), a transmission shaft d (3-19), A transmission wheel d (3-20), an air inlet duct (3-21), a reaction force propeller (3-22), a propeller connecting column (3-23), a duct bearing ring (3-24) and a duct limiting ring (3-25), a linkage motor (3-1) is connected with a linkage motor shaft (3-2), the linkage motor shaft (3-2) is connected with a belt a (3-3) in a friction way, the belt a (3-3) is connected with a transmission shaft a (3-4) in a friction way, the transmission shaft a (3-4) is connected with a transmission wheel a (3-5), the transmission wheel a (3-5) is connected with a linkage sliding plate (3-11) in a friction way, a belt b (3-6) is connected with the linkage motor shaft (3-2) in a friction way, a transmission shaft b (3-7) is connected with a belt b (3-6) in a friction way, the transmission wheel b (3-8) is connected with the transmission shaft c (3-9), the transmission shaft c (3-9) is connected with the transmission wheel c (3-10), the transmission wheel c (3-10) is in friction connection with the linkage sliding plate (3-11), the linkage sliding plate (3-11) is in sliding connection with the linkage sliding limiting plate (3-12), the linkage sliding limiting plate (3-12) is connected with the operating plate a (2-13), the second-section limiting connecting plate a (3-13) is connected with the second-section limiting connecting shaft (3-14), the second-section limiting connecting shaft (3-14) is connected with the second-section limiting connecting plate b (3-15), the second-section limiting connecting plate c (3-16) is in sliding connection with the second-section limiting connecting shaft (3-14), and the second-section limiting spring (3-17) is sleeved on the second-section limiting connecting shaft (3-14) and limited by the second-section limiting connecting 13) The device is connected with two sections of limiting connecting plates c (3-16), belts c (3-18) are connected with transmission shafts a (3-4), transmission shafts d (3-19) are in friction connection with the belts c (3-18), transmission wheels d (3-20) are connected with the transmission shafts d (3-19), air inlet ducts (3-21) are in friction connection with the transmission wheels d (3-20), reaction force propellers (3-22) are connected with the air inlet ducts (3-21), propeller connecting columns (3-23) are connected with the reaction force propellers (3-22), duct bearing rings (3-24) are connected with the air inlet ducts (3-21) through bearings, duct limiting circular rings (3-25) are connected with the duct bearing rings (3-24), and linkage motors (3-1) are connected with operation plates a (2-13), the transmission shaft a (3-4) is in bearing connection with the operation plate a (2-13), the transmission shaft b (3-7) is in bearing connection with the operation plate a (2-13), the transmission wheel b (3-8) is in friction connection with the air inlet duct (3-21), the transmission shaft c (3-9) is in bearing connection with the operation plate a (2-13), the two-section limiting connecting shaft (3-14) is in sliding connection with the sliding plate a (2-15), and the transmission shaft d (3-19) is in bearing connection with the operation plate a (2-13).

5. The aerial work apparatus for power cables as claimed in claim 1, wherein: the winding and material conveying mechanism (4) comprises an extension shaft (4-1), a rotating wheel (4-2), a rotating shaft a (4-3), a winding block (4-4), a fluctuation ring (4-5), a fluctuation block (4-6), a handle (4-7), a limiting square ring (4-8), a compression plate (4-9), a compression connecting plate (4-10), a compression shaft (4-11), a compression spring (4-12), a conveying connecting plate a (4-13), a conveying connecting plate b (4-14), a conveying connecting shaft (4-15), a conveying rope (4-16) and a material box (4-17), wherein the extension shaft (4-1) is connected with the rotating wheel (4-2), and the rotating shaft a (4-3) is connected with the winding block (4-4) in a sliding manner, the wave ring (4-5) is connected with the rotating shaft a (4-3) through a bearing, the wave block (4-6) is connected with the wave ring (4-5), the handle (4-7) is connected with the wave block (4-6), the limit square ring (4-8) is connected with the wave block (4-6) in a sliding way, the compression plate (4-9) is connected with the rotating shaft a (4-3) in a sliding way, the compression connecting plate (4-10) is connected with the compression shaft (4-11) in a sliding way, the compression shaft (4-11) is connected with the compression plate (4-9), the compression spring (4-12) is sleeved on the compression shaft (4-11) and limited on the compression plate (4-9) and the compression connecting plate (4-10), the transmission connecting plate a (4-13) is connected with the transmission plate (4-15), a conveying connecting plate b (4-14) is connected with a conveying connecting shaft (4-15), the conveying connecting shaft (4-15) is connected with a wave ring (4-5) through a bearing, one end of a conveying rope (4-16) is wound on the conveying connecting shaft (4-15) and is connected with the conveying connecting shaft (4-15), the other end of the conveying rope penetrates through a material conveying connecting plate (2-23) and is connected with a material box (4-17), an extension shaft (4-1) is connected with a transmission shaft c (3-9), a rotating shaft a (4-3) is connected with an operating plate a (2-13) in a sliding manner, the rotating shaft a (4-3) is connected with a limiting square ring (4-8) in a sliding manner, the limiting square ring (4-8) is connected with the operating plate a (2-13), a wave block (4-6) is connected with a pressing plate (4-9) in a sliding manner, the wave motion block (4-6) is connected with the compression connecting plate (4-10) in a sliding mode, the limiting square ring (4-8) is connected with the transmission connecting shaft (4-15) in a sliding mode, the compression plate (4-9) is connected with the operation plate a (2-13), the compression connecting plate (4-10) is connected with the operation plate a (2-13) in a sliding mode, and the transmission connecting shaft (4-15) is connected with the operation plate a (2-13) in a sliding mode.

6. The aerial work apparatus for power cables as claimed in claim 1, wherein: the material of the reaction force propeller (3-22) is 6061 alloy aluminum.

Technical Field

The invention relates to aerial work equipment, in particular to aerial work equipment for power cables.

Background

When cables are laid at higher places, the lifting equipment is often swayed under the influence of wind, but no good high-altitude operation equipment is available in the market, so that the high-altitude operation equipment for the power cables is designed.

Disclosure of Invention

The invention mainly solves the technical problem of providing the aerial working equipment for the power cable, the equipment can automatically advance, the equipment can lift an operation table, the equipment can ensure that the relative position of the operation table is stable and the influence of wind on the equipment is reduced when the operation table is lifted in a second section, the equipment can convey materials, and the equipment can wind the operated cable.

In order to solve the technical problems, the invention relates to high-altitude operation equipment, in particular to high-altitude operation equipment for a power cable, which comprises a travelling mechanism, a first-section lifting mechanism, a second-section lifting mechanism and a winding and material conveying mechanism, wherein the equipment can automatically travel, can lift an operation table, can ensure that the relative position of the operation table is stable and reduce the influence of wind on the equipment when the operation table is lifted in the second section, can convey materials, and can wind the operated cable.

The advancing mechanism is connected with the first lifting mechanism, the first lifting mechanism is connected with the second lifting mechanism, the second lifting mechanism is connected with the winding and material conveying mechanism, and the winding and material conveying mechanism is connected with the first lifting mechanism.

As a further optimization of the technical scheme, the overhead working equipment for the power cable comprises a travelling motor, a travelling motor shaft, a travelling belt, a travelling wheel shaft, a mounting side plate, a travelling wheel, an equipment supporting plate and a motor mounting plate, wherein the travelling motor is connected with the travelling motor shaft, the travelling motor shaft is in friction connection with the travelling belt, the travelling belt is in friction connection with the travelling wheel shaft, the travelling wheel shaft is in bearing connection with the mounting side plate, the mounting side plate is connected with the equipment supporting plate, the motor mounting plate is connected with the travelling motor, and the travelling wheel is connected with the travelling wheel shaft.

As a further optimization of the technical scheme, the invention relates to overhead working equipment for power cables, which comprises a lifting motor mounting plate, a lifting motor shaft, a lifting threaded wheel, a threaded connecting plate, a threaded shaft limiting plate a, a threaded shaft limiting plate b, a push-pull connecting column, a push-pull rod, a push-pull shaft bearing ring, an operating plate a, a push-pull shaft sliding chute, a sliding plate a, a sliding plate b, a sliding limiting block a, a sliding limiting block b, a sliding plate c, a sliding plate b connecting block, an operating plate b connecting plate, an operating plate b, a material conveying connecting plate, an operating plate limiting block, an operating plate limiting plate and an operating plate limiting spring, wherein the lifting motor mounting plate is connected with the lifting motor, the lifting motor is connected with the lifting motor shaft, the lifting motor shaft is connected with the lifting threaded wheel, and the lifting threaded, the screw thread connecting plate is connected with a shaft bearing of the lifting motor, the screw thread shaft is connected with the screw thread connecting plate in a screw thread mode, the screw thread shaft limiting plate a and the screw thread shaft limiting plate b are connected with the equipment supporting plate, the screw thread shaft limiting plate b is connected with the screw thread shaft bearing, the push-pull connecting column is connected with the screw thread connecting plate, the push-pull rod is connected with the push-pull connecting column bearing, the push-pull shaft is connected with the push-pull rod bearing, the push-pull shaft bearing ring is connected with the push-pull shaft bearing ring, the operating plate a is connected with the push-pull shaft sliding chute in a sliding mode, the sliding plate a is connected with the push-pull shaft sliding chute, the sliding plate b is connected with the sliding plate a in a sliding mode, the sliding limiting block a is connected with the sliding plate a, the sliding block b is connected with the sliding plate b in a sliding mode, the, operation panel b is connected with the material conveying connecting plate, the operation panel stopper is connected with the operation panel limiting shaft, the operation panel limiting shaft is connected with the operation panel limiting plate in a sliding mode, the operation panel limiting plate is connected with the operation panel b, the operation panel limiting spring sleeve is arranged on the operation panel limiting shaft in a limiting mode and is connected with the operation panel limiting plate in a limiting mode, the lifting motor mounting plate is connected with the equipment supporting plate, the threaded connecting plate is connected with the equipment supporting plate, the operation panel b is connected with the push-pull shaft sliding groove in a sliding mode, the operation panel b is connected with the sliding plate a in a sliding mode, the operation panel b is connected.

As a further optimization of the technical scheme, the invention relates to high-altitude operation equipment for power cables, which comprises a linkage motor, a linkage motor shaft, a belt a, a transmission shaft a, a transmission wheel a, a belt b, a transmission shaft b, a transmission wheel b, a transmission shaft c, a transmission wheel c, a linkage sliding plate, a linkage sliding limiting plate, a second-section limiting connecting plate a, a second-section limiting connecting shaft, a second-section limiting connecting plate b, a second-section limiting connecting plate c, a second-section limiting spring, a belt c, a transmission shaft d, a transmission wheel d, an air inlet duct, a reaction force propeller, a propeller connecting column, a duct bearing ring and a duct limiting ring, wherein the linkage motor is connected with the linkage motor shaft, the linkage motor shaft is in friction connection with the belt a, the belt a is in friction connection with the transmission shaft a, the transmission wheel a is, a belt b is in friction connection with a linkage motor shaft, a transmission shaft b is in friction connection with the belt b, the transmission wheel b is connected with a transmission shaft c, the transmission shaft c is connected with a transmission wheel c, the transmission wheel c is in friction connection with a linkage sliding plate, the linkage sliding plate is in slide connection with a linkage sliding limiting plate, the linkage sliding limiting plate is connected with an operation plate a, a second-section limiting connecting plate a is connected with a second-section limiting connecting shaft, the second-section limiting connecting shaft is connected with a second-section limiting connecting plate b, the second-section limiting connecting plate c is in slide connection with the second-section limiting connecting shaft, a second-section limiting spring is sleeved on the second-section limiting connecting shaft and limited on the second-section limiting connecting plate a and the second-section limiting connecting plate c, the belt c is connected with the transmission shaft a, the transmission, the propeller connecting column is connected with the reaction force propeller, the duct bearing ring is connected with the air inlet duct bearing, the duct limiting ring is connected with the duct bearing ring, the linkage motor is connected with the operating plate a, the transmission shaft a is connected with the operating plate a bearing, the transmission shaft b is connected with the operating plate a bearing, the transmission wheel b is in friction connection with the air inlet duct, the transmission shaft c is connected with the operating plate a bearing, the two-section limiting connecting shaft is in sliding connection with the sliding plate a, and the transmission shaft d is connected with the operating plate a bearing.

As a further optimization of the technical scheme, the invention relates to high-altitude operation equipment for power cables, which comprises a winding and material conveying mechanism, wherein the winding and material conveying mechanism comprises an extension shaft, a rotating wheel, a rotating shaft a, a winding block, a fluctuation ring, a fluctuation block, a handle, a limit square ring, a compression plate, a compression connecting plate, a compression shaft, a compression spring, a conveying connecting plate a, a conveying connecting plate b, a conveying connecting shaft, a conveying rope and a material box, the extension shaft is connected with the rotating wheel, the rotating shaft a is connected with the winding block in a sliding manner, the fluctuation ring is connected with a bearing of the rotating shaft a, the fluctuation block is connected with the fluctuation ring, the handle is connected with the fluctuation block, the limit square ring is connected with the fluctuation block in a sliding manner, the compression plate is connected with the rotating shaft a in a sliding manner, the compression connecting shaft is connected with the compression plate, the compression spring is sleeved on the compression shaft and limited on, send connecting plate b to be connected with the conveying connecting axle, the conveying connecting axle is connected with undulant ring bearing, conveying rope one end winding is on the conveying connecting axle and is connected with the conveying connecting axle, the other end passes the material conveying connecting plate and is connected with the material case, the extension axle is connected with transmission shaft c, rotation axis an and operation panel a sliding connection, rotation axis a and spacing square ring sliding connection, spacing square ring is connected with operation panel a, undulant piece and oppression board sliding connection, undulant piece and oppression connecting plate sliding connection, spacing square ring and conveying connecting axle sliding connection, oppression board and conveying connecting axle sliding connection, the oppression board is connected with operation panel a, oppression connecting plate and operation panel a sliding connection, conveying connecting axle and operation panel a sliding connection.

As a further optimization of the technical scheme, the high-altitude operation equipment for the power cable is characterized in that the reaction force propeller is made of 6061 alloy aluminum.

The aerial work equipment for the power cable has the beneficial effects that:

according to the aerial working equipment for the power cable, disclosed by the invention, the equipment can automatically advance, the equipment can lift the operation table, the equipment can ensure that the relative position of the operation table is stable and the influence of wind on the equipment is reduced when the operation table is lifted in a second section, the equipment can convey materials, and the equipment can wind the operated cable.

Drawings

The invention is described in further detail below with reference to the accompanying drawings and specific embodiments.

Fig. 1 is a schematic structural diagram of aerial work equipment for power cables according to the present invention.

Fig. 2 is a first structural schematic diagram of a traveling mechanism 1 of aerial work equipment for power cables according to the present invention.

Fig. 3 is a second schematic structural diagram of the traveling mechanism 1 of the aerial work equipment for power cables according to the present invention.

Fig. 4 is a first structural schematic diagram of a section of lifting mechanism 2 of the aerial work equipment for power cables of the invention.

Fig. 5 is a second schematic structural diagram of a first section of lifting mechanism 2 of the aerial work equipment for power cables according to the present invention.

Fig. 6 is a third schematic structural diagram of a section of lifting mechanism 2 of the aerial work equipment for power cables according to the invention.

Fig. 7 is a first structural schematic diagram of a two-stage lifting mechanism 3 of the aerial work equipment for power cables of the invention.

Fig. 8 is a second schematic structural diagram of the two-stage lifting mechanism 3 of the aerial work equipment for power cables according to the present invention.

Fig. 9 is a third schematic structural diagram of a two-stage lifting mechanism 3 of the aerial work equipment for power cables according to the present invention.

Fig. 10 is a first structural schematic diagram of a winding and material conveying mechanism 4 of the aerial work equipment for power cables.

Fig. 11 is a second structural schematic diagram of the winding and material conveying mechanism 4 of the aerial work equipment for power cables.

Fig. 12 is a third schematic structural diagram of a winding and material conveying mechanism 4 of the aerial work equipment for power cables.

Fig. 13 is a fourth schematic structural diagram of the winding and material conveying mechanism 4 of the aerial work equipment for power cables.

Fig. 14 is a fifth structural schematic diagram of the winding and material conveying mechanism 4 of the aerial work equipment for power cables.

Fig. 15 is a sixth schematic structural diagram of the winding and material conveying mechanism 4 of the aerial work equipment for power cables.

Fig. 16 is a seventh structural schematic diagram of the winding and material conveying mechanism 4 of the aerial work equipment for power cables.

Fig. 17 is an eighth schematic structural diagram of the winding and material conveying mechanism 4 of the aerial work equipment for power cables.

Fig. 18 is a schematic structural view of a compression plate 4-9 of the aerial work apparatus for power cables according to the present invention.

In the figure: a traveling mechanism 1; a traveling motor 1-1; a traveling motor shaft 1-2; 1-3 of a traveling belt; 1-4 of a traveling wheel shaft; installing side plates 1-5; 1-6 of a travelling wheel; equipment supporting plates 1-7; 1-8 parts of a motor mounting plate; a segment of raising means 2; lifting the motor mounting plate 2-1; lifting the motor 2-2; raising the motor shaft 2-3; raising the threaded wheel 2-4; 2-5 of a threaded connection plate; 2-6 parts of a threaded shaft; the threaded shaft limiting plate a 2-7; the threaded shaft limiting plate b 2-8; push-pull connecting columns 2-9; 2-10 parts of a push-pull rod; 2-11 parts of a push-pull shaft; 2-12 parts of a push-pull shaft bearing ring; an operation panel a 2-13; push-pull shaft chutes 2-14; slide panel a 2-15; slide panel b 2-16; a sliding limiting block a 2-17; a slide stopper b 2-18; slide plate c 2-19; a sliding plate b is connected with the blocks 2-20; the operation board b is connected with the boards 2-21; operation panels b 2-22; the material conveying connecting plates 2-23; 2-24 operating plate limiting blocks; 2-25 of an operation plate limiting shaft; the operation plate limiting plates 2-26; operation plate limit springs 2-27; a two-stage lifting mechanism 3; a linkage motor 3-1; a linkage motor shaft 3-2; belt a 3-3; a transmission shaft a 3-4; a driving wheel a 3-5; belt b 3-6; a transmission shaft b 3-7; a driving wheel b 3-8; a transmission shaft c 3-9; a driving wheel c 3-10; linkage sliding plates 3-11; linkage sliding limit plates 3-12; two-section limit connecting plate a 3-13; two-section limiting connecting shafts 3-14; two-section limit connecting plate b 3-15; two-section limit connecting plates c 3-16; two-section limiting springs 3-17; belt c 3-18; a transmission shaft d 3-19; a driving wheel d 3-20; 3-21 of an air inlet duct; reaction force propellers 3-22; propeller connecting columns 3-23; 3-24 parts of ducted bearing rings; 3-25 parts of a duct limiting ring; a winding and material conveying mechanism 4; an extension shaft 4-1; 4-2 of a rotating wheel; the rotation axis a 4-3; 4-4 of a winding block; 4-5 of a fluctuation ring; 4-6 of a fluctuation block; 4-7 of a handle; 4-8 parts of a limiting square ring; 4-9 parts of a compression plate; pressing the connecting plate 4-10; pressing the shaft 4-11; pressing the springs 4-12; transfer patch a 4-13; transfer patch b 4-14; a transmission connecting shaft 4-15; a conveying rope 4-16; and 4-17 material tanks.

Detailed Description