CN219961297U - Garden management machine capable of controlling working cutters independently - Google Patents

Abstract

The utility model relates to a field management machine capable of controlling working cutters independently, which comprises a power source and a gearbox for receiving the power source, wherein the gearbox transmits power to the working cutters through cutter power input shafts, and the cutter power input shafts can be controlled to combine the power transmission to the working cutters or break the power transmission. When the garden management machine works, the cutter power input shaft can be controlled to be combined with power transmission to the working cutter or cut off power transmission, and the working cutter is replaced after the power transmission is cut off, so that the safety is improved.

Description

Garden management machine capable of controlling working cutters independently

Technical Field

The utility model relates to the technical field of agricultural machinery, in particular to a field management machine capable of independently controlling working cutters.

Background

The field management machine is generally used for small-sized field tillage machines for greenhouse, orchard, common farmland and other land operations, and is an agricultural machine product specially designed for the operations of orchard, vegetable land, greenhouse, hilly and sloping field and small-sized land (paddy field and dry field).

In order to meet the functional requirements of the field management machine, different working tools are required to be installed, so that the field management machine can meet the requirements of working such as rotary tillage, ditching, ridging, backfilling, weeding and cutting. Therefore, a user is required to replace the working tool, at present, the power assembly transmits power to the working tool through the tool power input shaft, and if the user carelessly triggers the power equipment or the gearbox when replacing the tool, the working tool can be caused to run, so that the user is injured, and potential safety hazards exist.

Disclosure of Invention

In view of the above, the present utility model provides a field management machine capable of controlling working tools individually, in which a tool power input shaft can be controlled to transmit power to the working tools or to interrupt power transmission, so as to ensure the safety of the replacement of the working tools.

The utility model provides a field management machine capable of independently controlling working cutters, which adopts the following technical scheme:

a garden manager capable of individually controlling working cutters, comprising:

a power source and a gearbox for receiving the power source, the gearbox transmitting power to the working tool through a tool power input shaft;

the tool power input shaft may be manipulated in combination with transmitting power to the work tool or interrupting power transmission.

Optionally, the cutter power input shaft is obliquely arranged forward and downward.

Optionally, the automatic cutting machine further comprises a cutter power output shaft transversely arranged along the horizontal direction, wherein a plurality of groups of working cutters can be arranged on the cutter power output shaft along the axial direction, and the cutter power input shaft transmits power to the cutter power output shaft to drive the cutters to rotate.

Optionally, the cutter power input shaft comprises a cutter first power input shaft and a cutter second power input shaft which are arranged along the axial direction, and the cutter first power input shaft and the cutter second power input shaft are coaxial and are disconnected or combined through a clutch assembly.

Optionally, the clutch assembly comprises a first clutch member arranged on the first power input shaft of the cutter in a transmission fit manner and a second clutch member arranged on the second power input shaft of the cutter in a transmission fit manner;

the first clutch member can be driven to axially slide to be engaged with or disengaged from the second clutch member; or, the second clutch member can be driven to axially slide to be engaged with or disengaged from the first clutch member; alternatively, the first clutch member and the second clutch member may be driven to slide in an axial direction to engage or disengage the two.

Optionally, the first power input shaft of the cutter is a short shaft with a set length, and a cutter power input bevel gear for receiving the power of the gearbox is integrally formed or fixedly matched with the first power input shaft of the cutter; the cutter second power input shaft is a long shaft, and a cutter power output bevel gear is integrally formed or fixedly matched with the cutter second power input shaft.

Optionally, the cutter power first input shaft and the cutter power second input shaft are coaxially arranged in the power arm.

Optionally, the cutter power input bevel gear is located at the outer side of the power arm, the cutter power input bevel gear is supported on the power arm through a first bearing, and the back of the cutter power input bevel gear abuts against the inner ring of the bearing; the cutter power output bevel gear is positioned at the outer side of the power arm, the cutter power output bevel gear is supported on the power arm through a second bearing, and a plurality of second bearings are arranged at intervals along the axial direction of the cutter power output bevel gear.

Optionally, the inclination angle of the first power input shaft of the cutter is adjustable.

Optionally, the power arm is fixedly connected to the box body of the power equipment through a supporting piece.

In summary, the present utility model includes at least one of the following beneficial technical effects: when the garden management machine works, the cutter power input shaft can be controlled to be combined with power transmission to the working cutter or cut off power transmission, and the working cutter is replaced after the power transmission is cut off, so that the safety is improved.

Drawings

FIG. 1 is a schematic overall structure of an embodiment of the present utility model;

FIG. 2 is a schematic illustration of the connection of a first power input shaft and a second power input shaft according to an embodiment of the present utility model;

fig. 3 is a schematic view of a connection structure between a second power input shaft and a power output shaft of a cutter according to an embodiment of the present utility model.

Reference numerals illustrate: 1. a power source; 2. a gearbox; 3. a cutter power input shaft; 31. a cutter first power input shaft; 32. a cutter second power input shaft; 4. a working tool; 5. a cutter power output shaft; 6. a clutch assembly; 61. a first clutch member; 62. a second clutch member; 7. a power arm; 8. a cutter power input bevel gear; 9. a bevel gear for power output of the cutter.

Detailed Description

The utility model is described in further detail below with reference to fig. 1-3.

The embodiment of the utility model discloses a field management machine capable of independently controlling working cutters.

Referring to fig. 1 to 3, a field management machine capable of controlling working tools individually includes a frame assembly, a traveling assembly, a working tool 4, a traveling power input shaft, a tool power input shaft 3, a traveling power output shaft, a tool power output shaft 5 and power equipment, the traveling assembly has a traveling part, and the traveling part is used for driving the frame assembly to travel; the power equipment transmits power to a walking power output shaft through a gearbox 2 through a walking power input shaft for driving the walking part to rotate, and transmits power to a cutter power output shaft 5 through a cutter power input shaft 3 through the gearbox 2 for driving the working cutter 4 to rotate.

The power plant is the power source 1, which in this embodiment is an engine. The power equipment is provided with a power output shaft of the power equipment. The transmission 2 has a power input shaft for receiving power from the power take-off shaft of the power plant, and a power take-off shaft.

The power equipment drives the traveling part to rotate forward or reverse through the gearbox 2, the traveling power input shaft and the traveling power output shaft; the power equipment drives the working cutter 4 to rotate forward only, rotate reversely only or can rotate forward or rotate reversely through the gearbox 2, the cutter power input shaft 3 and the cutter power output shaft 5.

The power output shaft of the power equipment is parallel to the power input total shaft and the power output total shaft along the front-back direction.

The power output shaft of the power equipment is positioned on the same vertical plane with the power input total shaft, the power output total shaft, the walking power input shaft and the cutter power input shaft 3.

When the soil is beaten, the walking part and the working cutter 4 are driven to rotate forwards by the power equipment; during ditching, the power equipment drives the walking part to rotate forward and the working cutter 4 to rotate reversely, and the functions of digging soil and ditching are realized by driving the working cutter 4 to rotate forward or rotate reversely, so that the functionality of the field management machine is increased.

For better ditching effect, the linear speed of the tip of the blade of the working tool 4 is greater than the travelling speed of the travelling part when in use.

The frame assembly is used as a frame body foundation of the garden management machine, and comprises an armrest frame for bearing the control part for supporting a user, a bearing frame for bearing the gearbox 2 and a supporting frame for bearing power equipment.

The supporting frame is fixedly arranged in front of the bearing frame, the handrail frame is arranged on the gearbox 2,

the connecting arm is arranged below the bearing frame, the walking power input shaft is arranged in the connecting arm, the power arm 7 is arranged obliquely downwards and forwards at the front end of the bearing frame, and the cutter power input shaft 3 is arranged in the power arm 7. The front end of power arm 7 is provided with preceding backup pad, the rear end is provided with the back backup pad, preceding backup pad sets up in the both sides of power arm 7, the front end of preceding backup pad is fixed to be set up in support frame, the rear end is fixed to be set up in power arm 7, form and support power equipment, the front end and the power arm 7 fixed connection of back backup pad, rear end and carrier fixed connection for support the linking arm, through the linking arm, power arm 7, preceding backup pad and back backup pad are with power equipment, cutter power input shaft 3, the support body formation between walking power input shaft and the gearbox 2 is whole, improve holistic bearing capacity, improve the steadiness.

The transmission 2 may be a two-speed transmission 2 or more than two-speed transmission 2 or other prior art transmission configurations, and in this embodiment, the transmission 2 is a three-speed transmission 2.

In the present embodiment, the three-speed gear box 2 includes a box body, a power input main shaft, a counter shaft, and an intermediate shaft;

the power input total shaft is used for receiving the output power of the power equipment;

the power input main shaft is provided with a first gear shifting gear and a second gear shifting gear which are axially and slidably driven in the circumferential direction, and the power input main shaft is generally realized in a spline connection mode, and the power input main shaft is not repeated here; the axial sliding can be realized by driving modes in the prior art, such as a shifting fork and other structures, and the description is omitted here;

the auxiliary shaft is provided with a first gear driven gear, a second gear driven gear, a third gear driven gear, a first transmission gear and a power transmission driving gear;

the first-gear driven gear, the second-gear driven gear and the first transmission gear synchronously drive in the circumferential direction, and the third-gear driven gear and the power transmission driving gear synchronously drive;

the intermediate shaft is provided with a second transmission gear and a functional gear, and the second transmission gear and the functional gear synchronously drive in the circumferential direction;

in the embodiment, the power transmission device further comprises a power output total shaft which is arranged front and back, a power transmission driven gear meshed with the power transmission driving gear is arranged on the power output total shaft in a transmission fit manner, and power is respectively output from the front end and the rear end of the power output total shaft; the output power is transmitted to the front and back parts, the front and back parts can be selected as walking parts or working cutters 4, wherein the working cutters 4 can be ditching, weeding, ridging, backfilling and rotary tillage cutters, required cutters and walking parts can be selected according to different needs, the walking parts, tracks or various cutters can be selectively installed, and the two working components can be matched with each other to set different cutters or cutter combinations, so that a garden management machine can realize all functions of basic cultivation at the same time, the requirements of modern agriculture are met, the front and back ends of a power output total shaft output power respectively, and the power output total shaft is arranged at the lower part of a gearbox 2, and the whole structure is simple, compact, coordinated and stable.

The first gear shifting gear can be driven to axially slide to be meshed with or disconnected from the first-gear driven gear or the functional gear, namely, the first gear shifting gear is shifted through the first gear shifting fork and meshed with, disconnected from or not meshed with the first-gear driven gear or the functional gear as required, so that corresponding functions are realized; the functional gear is meshed with the first transmission gear and is used for receiving power transmitted by the meshing of the first transmission gear and transmitting the power to the second transmission gear;

the second gear shifting gear can be driven to axially slide to be engaged with or disengaged from the second gear driven gear or the third gear driven gear, namely, the second gear shifting gear is driven by the gear shifting fork to be engaged with, disengaged from or not engaged with the second gear driven gear or the third gear driven gear, so that corresponding functions are realized;

the second transfer gear is meshed with the power transfer drive gear. The power input main shaft, the auxiliary shaft, the intermediate shaft and the power output main shaft are respectively supported on the box body through bearings.

In the embodiment, the first-gear driven gear, the second-gear driven gear and the first transmission gear form a triple gear and are arranged on the auxiliary shaft in a rotating fit manner, so that synchronous transmission is formed; the three-gear driven gear and the power transmission driving gear are matched and arranged on the auxiliary shaft, so that synchronous transmission is formed.

The power input main shaft is provided with a second gear and a first gear from left to right, the auxiliary shaft is sequentially provided with a third transmission gear, a three-gear driven gear, a second-gear driven gear, a first-gear driven gear and a first transmission gear from left to right, when the power input main shaft is not meshed, the first gear is positioned between the second-gear driven gear and the functional gear, the second gear is positioned between the second-gear driven gear and the third-gear driven gear, and meshing is formed when the power input main shaft is convenient to move.

In this embodiment, the two ends of the auxiliary shaft respectively form a first power transmission end a and a second power transmission end b for outputting power, that is, the two ends of the auxiliary shaft can extend out of the box body, and form the first power transmission end a and the second power transmission end b, so as to expand the output port of the gearbox 2, thereby increasing the working range of the field management machine, such as various functions required by field work, such as rotary tillage, mowing, soil beating, and the like.

In use, the gearbox 2 of the present utility model comprises a power transmission comprising first gear, second gear, third gear and reverse gear, in particular:

first gear transmission route:

the power transmission device comprises a power input main shaft, a first gear shifting gear, a first gear driven gear, a first transmission gear, a functional gear, an intermediate shaft, a second transmission gear, a power transmission driving gear, a power transmission driven gear, a power output main shaft, and power is respectively transmitted to a cutter power input shaft 3 and a walking power input shaft to finish first gear power transmission;

second gear transmission route:

the power input main shaft, the second gear shifting gear, the second gear driven gear, the first transmission gear, the functional gear, the intermediate shaft, the second transmission gear, the power transmission driving gear, the power transmission driven gear and the power output main shaft, and respectively transmitting power to the cutter power input shaft 3 and the walking power input shaft to finish the second gear power transmission;

three-gear transmission route:

the power input main shaft, the second gear shifting gear, the third-gear driven gear, the auxiliary shaft, the power transmission driving gear, the power transmission driven gear and the power output main shaft, and respectively transmitting power to the cutter power input shaft 3 and the walking power input shaft to finish the third-gear power transmission; the method comprises the steps of carrying out a first treatment on the surface of the

Reverse gear transmission route:

the power input main shaft, the first gear shifting gear, the functional gear, the intermediate shaft, the second transmission gear, the power transmission driving gear, the power transmission driven gear and the power output main shaft, and respectively transmitting power to the cutter power input shaft 3 and the walking power input shaft to finish reverse power transmission;

in the transmission force transmission process of the gear, other gears are disconnected and do not transmit power.

In this embodiment, a shift system is also provided. The gear shifting system comprises a gear shifting plate, a gear shifting rod and a gear shifting fork. Be provided with the gear shift board on the frame assembly, be provided with the gear shift lever in the gear shift board, in this embodiment, offered the gear shift groove that is used for supplying the gear shift lever to remove on the gear shift board.

The baffle plate is provided with a gear shifting groove with an H-shaped cross section; the four ends of the gear shifting groove are respectively and correspondingly provided with a first gear, a second gear, a third gear and a fourth gear along anticlockwise direction from the top of the left end, and the joint of the gear shifting groove is a neutral gear; in this embodiment, the first gear is a reverse gear, the second gear is a first gear, the third gear is a second gear, and the fourth gear is a third gear. The left side of the gear shifting groove is respectively a reverse gear, a neutral gear and a first gear from front to back; the right side is sequentially provided with 2 gears, neutral gear and three gears from front to back. Through this arrangement mode of shifting for when shifting, must hang the neutral gear earlier, improved the security in the gear shifting process, in addition, when shifting arbitrary fender, only need through the neutral gear can switch, for example when shifting to first fender from three keeps off, forward then left then backward can, the in-process of shifting only switches through the neutral gear, guarantee that the gear shifting is more smooth and safe.

In the figure, the reverse gear is numbered-1 on the shift plate, the neutral gear is 0, and the first gear, the second gear and the third gear are respectively corresponding to gears 1, 2 and 3.

In this embodiment, the shift lever is disposed obliquely backward, and the shift lever moves in the shift slot to drive the shift fork one or the shift fork two to move. The power output total shaft is used for transmitting power to the travelling wheels and the working cutters 4, so that synchronous gear shifting of the travelling wheels and the working cutters 4 is realized.

The front end of the box body of the gearbox 2 is provided with a power arm 7 obliquely downwards, the cutter power input shaft 3 is arranged in the power arm 7, and the combined end face of the box body of the power equipment and the box body of the gearbox 2 is positioned in the power arm 7.

The front end of the box body of the power equipment is positioned at the rear end of the cutter power output shaft 5.

According to the gear arrangement, the gears are transmitted as much as possible to reduce the number of the gears, so that the functions as much as possible are completed, the compactness of the structure of the gearbox 2 is ensured, meanwhile, the transmission efficiency is improved, and the driving energy is saved; in addition, the structure for outputting power is combined with the arrangement of the shaft and the gear, and the mode that the power output total shaft is arranged at the lower part avoids that the multi-shaft structure occupies a larger transverse space, so that the multi-shaft structure can be suitable for a narrower cultivation space; in the whole gearbox 2, the gear shifting can be realized by utilizing two gear shifting gears, parts such as a connector are not needed, and meanwhile, the functional gears simultaneously complete the power transmission and reversing functions, so that the whole gearbox 2 is more compact, and the manufacturing cost is further reduced.

The working cutter 4 is driven by the cutter power output shaft 5, the walking part is driven by the walking power output shaft, the speed ratio of the rotating speed of the walking power output shaft to the rotating speed of the cutter power output shaft 5 is 1:10-16, and the linear speed of the tip of the blade of the working cutter 4 is greater than the travelling speed of the walking part. In this embodiment, the rotation speed ratio of the traveling power output shaft to the rotation speed of the cutter power output shaft 5 is about 1:13.

When the soil is positioned in the rotation speed ratio range, the ditching depth is moderate and stable, and the ditched soil can be positioned at two sides of the ditches.

The cutter power input shaft 3 is inclined forward and downward, and the walking power input shaft can be inclined forward, vertical or backward.

In the present embodiment, the angle between the cutter power input shaft 3 and the power output total shaft is adjusted by installing bevel gears of different taper angles. The cutter power input shaft 3 and the power output total shaft are subjected to power transmission and angle adjustment through bevel gears.

In the embodiment, the cutter power input shaft 3 is provided with a power arm 7, the cutter power input shaft 3 is coaxially arranged in the power arm 7, and the cutter power input shaft 3 is obliquely arranged forward and downward; the walking power input shaft is vertically arranged and transmits power to the walking part, so that the whole length is ensured to be within a set range.

In the present embodiment, the front end of the power output total shaft transmits power to the cutter power input shaft 3, and the rear end transmits power to the walking power input shaft.

The front end and the rear end of the power output main shaft are respectively in transmission fit with a first drive bevel gear and a second drive bevel gear correspondingly;

the cutter power input shaft 3 is provided with a cutter power input bevel gear 8 in transmission fit, and the cutter power input bevel gear 8 is meshed with the first drive bevel gear; the walking power input shaft is matched with a working power input bevel gear meshed with the second drive bevel gear in a transmission way and is used for transmitting power to the walking part.

In the embodiment, the working tool 4 is connected with the tool power input shaft 3 through a tool power output shaft 5 transversely arranged along the horizontal direction, the tool power output bevel gear 9 is coaxially arranged at the output end of the tool power input shaft 3, the first power transmission bevel gear is coaxially and fixedly arranged on the tool power output shaft 5, and the first power transmission bevel gear is meshed with the tool power output bevel gear 9, so that the working tool 4 is driven to rotate.

In the present embodiment, the cutter power input shaft 3 includes a cutter first power input shaft 31 and a second power input shaft, the cutter power input bevel gear 8 is provided at an input end of the cutter first power input shaft 31, and the cutter power output bevel gear 9 is fixedly provided coaxially at an output end of the second power input shaft.

The cutter power input bevel gear 8 is positioned at the outer side of the power arm 7, the cutter power input bevel gear 8 is supported on the power arm 7 through a bearing I, and the back of the cutter power input bevel gear 8 abuts against the inner ring of the bearing; the cutter power output bevel gear 9 is located outside the power arm 7, and the cutter power output bevel gear 9 is supported on the power arm 7 through a second bearing, and a plurality of bearings are arranged at intervals along the axial direction of the cutter power output bevel gear 9.

In this embodiment, the cutter first power input shaft 31 is a short shaft with a set length, the short shaft is used for installing the coupling claw and the bearing, and the length of the short shaft is less in redundancy after the coupling claw and the bearing are installed, so that the centrality of the cutter first power input shaft 31 is convenient to maintain; the cutter second power input shaft 32 is a long shaft, and a cutter power output bevel gear 9 is integrally formed or fixedly matched with the cutter second power input shaft 32. At least two bearings are provided at intervals on the cutter second power input shaft 32 for maintaining the centrality of the cutter second power input shaft 32.

In this embodiment, the cutter first power input shaft 31 and the cutter second power input shaft 32 are coaxial and are disconnected or coupled by the clutch assembly 6.

The clutch assembly 6 comprises a first clutch piece 61 which is arranged on the first power input shaft 31 of the cutter in a transmission fit manner and a second clutch piece 62 which is arranged on the second power input shaft 32 of the cutter in a transmission fit manner;

the first clutch 61 can be driven to axially slide into and out of engagement with the second clutch 62; alternatively, the second clutch 62 may be driven to axially slide into and out of engagement with the first clutch 61; alternatively, the first clutch 61 and the second clutch 62 may be driven to slide in the axial direction to engage or disengage the two.

In the present embodiment, the second clutch member 62 is driven to axially slide into and out of engagement with the first clutch member 61

The second clutch member 62 is provided with a driving assembly for driving the second clutch member 62 toward or away from the first clutch member 61.

In this embodiment, the driving assembly adopts a structure of a shift fork and a spring, which is the prior art and is not described in detail herein. In this embodiment, the driving assembly is a handle, the handle is mounted on the handrail frame, the second clutch member 62 is held to move away from the first clutch member 61 to separate the two, the handle is released, and the spring drives the second clutch member 62 to move closer to the first clutch member 61 to combine the two.

When the garden management machine works, the clutch assembly 6 is connected with the first power input shaft 31 and the second power input shaft of the cutter, so that the power of the first power input shaft 31 of the cutter is transmitted to the second power input shaft through the clutch assembly 6; when the working tool 4 is replaced, the clutch assembly 6 is driven by the driving assembly to separate the tool second power input shaft 32 from the tool first power input shaft 31, so that power transmission between the tool first power input shaft 31 and the tool second power input shaft 32 is interrupted, and the safety is improved.

The cutter power output shaft 5 is horizontally arranged horizontally, a plurality of groups of working cutters 4 can be arranged on the cutter power output shaft 5 along the axial direction, and the cutter power input shaft 3 transmits power to the cutter power output shaft 5 to drive the cutters to rotate.

In the present embodiment, when the cutter power take-off shaft 5 on the left is engaged with the cutter power input bevel gear 8, the working cutter 4 is reversed, and similarly, when the cutter power take-off shaft 5 on the right is engaged with the cutter power input bevel gear 8, the working cutter 4 is rotated in the forward direction.

The working tool 4 is detachably arranged on the tool power output shaft 5. In this embodiment, the detachable connection is performed by means of bolts.

The walking part can be a crawler belt and a walking wheel or a cutter for working, in the embodiment, the walking part is a walking wheel, and the walking wheel comprises a left walking wheel and a right walking wheel which are respectively arranged along the two lateral sides.

In this embodiment, when ditching, two walking wheels correspond respectively and are located the axial outside of working tool 4 for the walking wheel is located the both sides that working tool 4 ditched, does not influence ditching quality.

In this embodiment, the walking wheel is a pair of walking wheels, including setting up left walking wheel and the right walking wheel in the left and right sides of frame assembly respectively, the output of walking power input shaft is provided with walking power output bevel gear, is provided with second power transmission bevel gear on the walking power output shaft, and both bevel gears intermeshing to drive the walking wheel and remove.

The walking power input shaft transmits power to the walking wheels through a walking power output shaft assembly, the walking power output shaft assembly comprises a walking power output left shaft and a walking power output right shaft, a power transmission part is coaxially arranged on the walking power output left shaft or the walking power output right shaft in a rotating fit manner, the power transmission part is used for receiving the power of the walking power input shaft, the power transmission part is a bevel gear, and the power transmission part is meshed with the walking power output bevel gear.

The walking power output shaft is provided with a combination assembly, the combination assembly comprises a left combination piece which is in transmission fit with the walking power output left shaft and can be driven to slide along the axial direction, and a right combination piece which is in transmission fit with the walking power output right shaft and can be driven to slide along the axial direction, and the power transmission piece transmits power to the combination assembly or breaks power transmission.

The walking power output shaft assembly is provided with a combined driving assembly for driving the combined assembly to move, in the embodiment, a shifting fork structure is adopted, the combined driving assembly comprises a walking shifting fork and an elastic piece, the walking shifting fork comprises a left shifting fork and a right shifting fork, the left shifting fork can be driven to drive the left combined piece to be in sliding fit with a left walking power output shaft, the right shifting fork can be driven to drive the combined piece to be in sliding fit with a right walking power output shaft, and the left combined piece and the right combined piece can be driven by the corresponding left shifting fork and right shifting fork to be combined or interrupted with a power transmission piece. In this embodiment, the actuating handle is used to drive the left fork or the right fork.

The elastic piece is used for applying outward pretightening force to the left shifting fork and the right shifting fork; or, the elastic member is used for applying outward pretightening force to the left combining member and the right combining member. In this embodiment, the elastic member is used to apply an outward pretightening force to the left fork and the right fork.

When the operating handle is released, the corresponding left or right combining piece transmits power under the action of the elastic piece.

The left walking power output shaft is provided with a shaft neck, the right walking power input shaft is provided with a shaft seat, the power transmission part is provided with a shaft hole, and the shaft neck is arranged in the shaft seat in a transmission fit way through the shaft hole; or the right axle of the walking power output is provided with a journal, the left axle of the walking power input is provided with an axle seat, the power transmission piece is provided with an axle hole, and the journal is arranged in the axle seat in a transmission fit way through the axle hole.

A left limiting shaft shoulder is formed between the end face of the walking power output left shaft and the shaft hole, a right limiting shaft shoulder is formed between the end face of the walking power output right shaft and the shaft hole, and the power transmission piece is limited to the left limiting shaft shoulder and the right limiting shaft shoulder.

The left walking power output shaft is detachably connected with the left walking wheel, and the right walking power output shaft is detachably connected with the right walking wheel.

In this embodiment, the left coupling member and the right coupling member are clutch pawls, and the end surfaces of the clutch pawls are spline teeth, and power transmission is performed by spline engagement.

The end surfaces of the two ends of the power transmission piece are provided with internal splines, the external splines of the left combining piece and the right combining piece are meshed with the internal splines.

Be provided with the installing support on the box of gearbox 2, in this embodiment, handrail support normal running fit sets up on the installing support, and the handrail frame, during the use, controls the garden supervisor, and the front end rotation of handrail frame sets up in gearbox 2 for but the rear end of handrail frame sets up in gearbox 2 with the mode of upper and lower direction swing and by the locking. The mounting bracket is provided with a locking piece for limiting the rotation of the armrest frame.

The gearbox 2 is fixedly provided with a mounting bracket, one end of the mounting bracket is fixedly arranged on the gearbox 2, and the other end of the mounting bracket is used for rotatably mounting the handrail frame, so that the handrail frame can swing in the up-down direction and is locked. The installing support is fixed to be set up in the top of gearbox 2, and the front end of installing pole is fixed to be set up in the installing support, rear end slope extension backward upper side. The armrest frame is mounted on the backward upward inclined part of the mounting rod in a manner of swinging along the up-down direction and being locked.

The installation pole is fixed to be set up in the front end of installing support, and the rear end of installing support is fixed to be provided with the extension board, and the extension board forms triangle-shaped support to the installation pole.

In this embodiment, the armrest frame includes a left armrest frame and a right armrest frame, which are rotatably provided on the left and right sides of the mounting bracket, respectively, and the front ends of the left armrest frame and the right armrest frame are provided on the rearward upper inclined portion of the mounting lever in a manner that they can swing in the up-down direction and be locked by end face ratchets, thereby adjusting the height position of the armrest frame. The end faces on the left handrail frame and the right handrail frame are provided with ratchets, the end face of the mounting rod is also provided with ratchets, and the ratchets are meshed with each other, so that the rotation angles of the left handrail frame and the right handrail frame are limited.

In this embodiment, the retaining member includes bolt and nut, and the nut sets up in right handrail frame, and the bolt passes left handrail frame and nut threaded connection, through adjusting the screw thread position of bolt and nut, changes the tight degree of support between handrail frame and the installing support to adjust or fix handrail frame.

A bearing plate is arranged between the left handrail frame and the right handrail frame, and a start-stop rod for controlling the start and stop of the engine is arranged on the bearing plate.

The handrail frame is provided with a start-stop rod for controlling the start and stop of the power equipment and a control handle for controlling the left and right steering of the field management machine. The two control handles are respectively arranged on the left handrail frame and the right handrail frame, and are connected with the corresponding left shifting fork or right shifting fork through a pull wire to control the corresponding left shifting fork or right shifting fork to move.

The armrest frame is arranged on the box body of the gearbox 2 in a rotating fit way, and the middle hollow of the armrest frame is used for the gear shift lever to pass through.

The baffle is fixed to be set up in the backward upper tilting part of installation pole, and the cooperation of shifting inslot walking is provided with and is used for the gear level.

A middle hollow part is formed between the left armrest frame and the right armrest frame and is used for the gear shift lever to pass through.

The supporting frame for carrying the power equipment is fixedly arranged on the supporting arm through a supporting piece, and the cutter power input shaft 3 is obliquely arranged forward and downward. By adopting the frame arrangement structure, the overall height of the field management machine is lower, the gravity center is lowered, and the stability of the field management machine in the running process is improved; meanwhile, when the power equipment operates, vibration generated by self operation acts on the cutter power input shaft 3 through the supporting piece and acts on the working cutter 4 through the cutter power input shaft 3, so that the ditching effect is improved.

In this embodiment, the walking power take-off shaft is located above the cutter power take-off shaft 5, and the difference in height between the two ranges from 50 to 100mm.

In this embodiment the wheelbase between the cutter power take-off shaft 5 and the travelling power take-off shaft is in the range 300-600mm.

In the present embodiment, the combined end face of the power plant and the gearbox 2 is located in front of the rear end of the power arm 7.

In the present embodiment, the running part is provided rearward with respect to the working tool 4 and below the transmission case 2.

In this embodiment, still include the resistance bar, at the rear end integrated into one piece of carrier and the front end integrated into one piece's of support frame installation department, when the resistance bar set up in the installation department of the front end of support frame, the resistance bar inverts and makes supporting wheel and ground contact, and is located the front end of work utensil, form the three-point support through running part and supporting wheel, thereby drive the garden management machine and remove, the resistance bar sets up when the installation department of the rear end of carrier, the resistance bar is just put and is made the bending part and contact with soil, carry out the rotary tillage.

The resistance bar is arranged on the installation part in a sliding fit manner along the vertical direction, and a limiting piece is arranged on the installation part and used for limiting the resistance bar to slide in the installation part. In this embodiment, the locating part is the bolt, and the spacing is equipped with a plurality of jacks along its length direction interval on the resistance stick, installs the bolt on the installation department, and the bolt is through inserting the jack of establishing in the different positions of resistance stick to change the distance that the bottom of resistance stick stretches out from the installation department to adjust the degree of depth of rotary tillage.

In this embodiment, install the installation department normal running fit setting in the rear end of bearing frame in bearing frame, can follow horizontal reciprocal rotation, when the resistance bar is installed in the rear end of frame assembly, through rotating the installation department, realize the diversification of resistance bar rotary tillage, the rotary tillage is more convenient.

The frame assembly is provided with a limiting piece for limiting the rotation of the rear end installation part. In this embodiment, the limiting member is a bolt, and the mounting portion is rotated or fixed by adjusting the locking degree of the bolt between the frame assemblies.

The supporting wheel is detachably connected with the resistance bar. In this embodiment, the supporting wheel is provided with a clamping portion, the clamping portion is clamped with one end of the resistance bar, and the clamping portion is fixedly arranged at the end of the resistance bar through a bolt.

The installation part at the rear end of the bearing frame is detachably provided with a storage basket. The storage basket is used for placing various cutters or parts and the like, when the resistance rod is installed at the front end of the frame assembly, the supporting wheel is in contact with the ground, the storage basket is installed at the installation part of the rear end, and when the field management machine is moved, the cutters or the parts and the like are placed in the storage basket, so that the storage basket is more convenient to carry.

In this embodiment, the front end is the direction of advance of the field manager.

In this embodiment, the support wheel is a universal wheel.

Example 2

The present embodiment is different from embodiment 1 in that the inclination angle of the tool power input shaft 3 is adjustable.

In the embodiment, only a first drive bevel gear is coaxially and fixedly arranged on the power output total shaft, and a cutter power input bevel gear 8 is coaxially and fixedly arranged on the cutter power input shaft 3;

the cutter power input bevel gear 8 is in transmission engagement with the first drive bevel gear through an intermediate bevel gear;

the cutter power input bevel gear 8 changes the angle between the cutter power input bevel gear 8 and the first drive bevel gear by meshing with different positions on the intermediate bevel gear in the circumferential direction.

In this embodiment, an intermediate bevel gear is located at the forward end of the main power take-off shaft for engagement with the cutter power input bevel gear 8 and the first drive bevel gear.

The range of the angle alpha which can be adjusted between the cutter power input shaft 3 and the walking power input shaft is enlarged, and the adaptability is stronger.

In this embodiment, the cutter-power input shaft 3 is inclined by an angle α in the range of 90 ° to 170 °.

Example 3

The present embodiment is different from embodiment 1 in that the inclination angle of the traveling power input shaft is adjustable.

In the present embodiment, the intermediate bevel gears are located at the front end and the rear end of the power take-off main shaft, respectively, the intermediate bevel gear located at the front end is used to mesh with the cutter power input bevel gear 8 and the first drive bevel gear, and the intermediate bevel gear located at the rear end is used to mesh with the traveling power input bevel gear and the second drive bevel gear.

In other embodiments, the intermediate bevel gears are respectively located at the front end and the rear end of the power output main shaft, the intermediate bevel gears located at the front end are used for being meshed with the cutter power input bevel gear 8 and the first drive bevel gear, the power output main shaft is meshed with the power output intermediate shaft through gear transmission, the drive bevel gears are coaxially and fixedly arranged on the power output intermediate shaft, and the intermediate bevel gears located at the rear end are used for being meshed with the walking power input bevel gear and the second drive bevel gear.

In this embodiment, the inclination angles of the cutter power input shaft 3 and the travel power input shaft are both adjustable.

In this embodiment, the cutter power input shaft 3 is adjusted in the same manner as in embodiment 2.

In other embodiments, the inclination angle of the travel power input shaft may be adjustable only, and the inclination angle of the tool power input shaft 3 may not be adjustable.

The inclination angles of the walking power input shaft and the cutter power input shaft 3 may be adjustable, but the inclination angle of the cutter power input shaft 3 may be adjusted by installing bevel gears with different angles, as in the adjustment mode of the inclination angle of embodiment 1.

The inclination angle beta of the walking power input shaft ranges from 70 degrees to 150 degrees.

Example 4

This embodiment differs from embodiments 1, 2, 3 in that the cutter power input shaft 3 is of a chain transmission structure.

In this embodiment, the inclination angle adjustment modes of the cutter power input shaft 3 and the traveling power input shaft may be any one of the adjustment modes of embodiments 1, 2, and 3.

In this embodiment, the cutter power input bevel gear 8 is coaxially provided with a rotation shaft, the rotation shaft and the cutter power output shaft 5 are both coaxially provided with a sprocket, the sprocket is provided with a chain, and the sprocket is driven to rotate by the rotation of the cutter power input bevel gear 8, so that the cutter power output shaft 5 is driven to rotate by the chain.

In the present embodiment, the inclination angle of the tool power input shaft 3 is adjustable.

Example 5

The present embodiment is different from embodiments 1, 2, 3, and 4 in that the traveling power input shaft is also of a chain transmission structure.

In this embodiment, the inclination angle adjustment modes of the cutter power input shaft 3 and the traveling power input shaft may be any one of the adjustment modes of embodiments 1, 2, and 3.

In this embodiment, the chain transmission structure of embodiment 4 is applied to a traveling power input shaft such that the cutter power input shaft 3 is a bevel shaft transmission and the traveling power input shaft is a chain transmission.

In other embodiments, the cutter power input shaft 3 and the travel power input shaft may each be a chain transmission structure.

Example 6

The present embodiment is different from embodiment 1 in that the working tool 4 can be driven to rotate forward or backward.

In this embodiment, two first power transmission bevel gears are disposed left and right along the axial mirror image of the cutter power output shaft 5, the first power transmission bevel gears disposed left and right in mirror image can be operated to be engaged with the cutter power output bevel gears 9 respectively, the operation mode is in the prior art, in this embodiment, the operation mode of a shifting fork is adopted, which is not described in detail herein, and the shifting fork drives the left first power transmission bevel gear or the right first power transmission bevel gear to be engaged with the cutter power output bevel gears 9, so as to realize forward and reverse rotation of the cutter power output shaft 5, thereby realizing forward and reverse rotation of the working cutter 4.

In this embodiment, either the left or right first power transmission bevel gears have and only one of them meshes with the cutter power take-off bevel gear 9.

The above embodiments are not intended to limit the scope of the present utility model, so: all equivalent changes in structure, shape and principle of the utility model should be covered in the scope of protection of the utility model.

Claims (10)

1. The utility model provides a but garden supervisor of independent control working tool which characterized in that: comprising the following steps:

a power source and a gearbox for receiving the power source, the gearbox transmitting power to the working tool through a tool power input shaft;

the tool power input shaft may be manipulated in combination with transmitting power to the work tool or interrupting power transmission.

2. The individually controllable work tool field manager according to claim 1, wherein: the cutter power input shaft is obliquely arranged at the front lower part.

3. The individually controllable work tool field manager according to claim 1, wherein: the tool power output shaft is horizontally arranged, a plurality of groups of working tools can be arranged on the tool power output shaft along the axial direction, and the tool power input shaft transmits power to the tool power output shaft to drive the tools to rotate.

4. A garden manager capable of individually controlling working tools according to any one of claims 1-3, characterized in that: the cutter power input shaft comprises a cutter first power input shaft and a cutter second power input shaft which are axially arranged, and the cutter first power input shaft and the cutter second power input shaft are coaxial and are disconnected or combined through a clutch assembly.

5. The individually controllable work tool garden supervisor as claimed in claim 4, wherein: the clutch assembly comprises a first clutch piece which is arranged on the first power input shaft of the cutter in a transmission fit manner and a second clutch piece which is arranged on the second power input shaft of the cutter in a transmission fit manner;

the first clutch member can be driven to axially slide to be engaged with or disengaged from the second clutch member; or, the second clutch member can be driven to axially slide to be engaged with or disengaged from the first clutch member; alternatively, the first clutch member and the second clutch member may be driven to slide in an axial direction to engage or disengage the two.

6. The individually controllable work tool field manager of claim 5, wherein: the cutter first power input shaft is a short shaft with a set length, and a cutter power input bevel gear for receiving the power of the gearbox is integrally formed or fixedly matched with the cutter first power input shaft; the cutter second power input shaft is a long shaft, and a cutter power output bevel gear is integrally formed or fixedly matched with the cutter second power input shaft.

7. The individually controllable work tool field manager of claim 6, wherein: the cutter power first input shaft and the cutter power second input shaft are coaxially arranged in the power arm.

8. The individually controllable work tool field manager of claim 7, wherein: the cutter power input bevel gear is positioned at the outer side of the power arm, the cutter power input bevel gear is supported on the power arm through a first bearing, and the back of the cutter power input bevel gear is abutted against the inner ring of the bearing; the cutter power output bevel gear is positioned at the outer side of the power arm, the cutter power output bevel gear is supported on the power arm through a second bearing, and a plurality of second bearings are arranged at intervals along the axial direction of the cutter power output bevel gear.

9. The individually controllable work tool field manager according to claim 1, wherein: the inclination angle of the first power input shaft of the cutter is adjustable.

10. The individually controllable work tool field manager of claim 7, wherein: the power arm is fixedly connected to the box body of the power equipment through the supporting piece.