CN218311943U

CN218311943U - New processingequipment of wind power generation swivel nut and new forms of energy motor shaft

Info

Publication number: CN218311943U
Application number: CN202222521770.3U
Authority: CN
Inventors: 赵亚飞; 赖韬
Original assignee: Zhejiang Zhongzhi Jinggong Intelligent Equipment Co ltd
Current assignee: Zhejiang Zhongzhi Jinggong Intelligent Equipment Co ltd
Priority date: 2022-09-20
Filing date: 2022-09-20
Publication date: 2023-01-17
Anticipated expiration: 2032-09-20

Abstract

The utility model provides a new processingequipment of wind power generation swivel nut and new forms of energy motor shaft, it has solved the too many scheduling problems of axle sleeve work piece manufacturing procedure, and it includes main pedestal, and main pedestal upper end both sides are installed the sideslip pedestal through lateral sliding mechanism respectively, and the sideslip pedestal is connected with through longitudinal sliding mechanism and indulges the pedestal, indulges and installs sword tower mechanism and drilling mechanism on the pedestal, installs the binocular main shaft mechanism that is located between the sideslip pedestal on the main pedestal. The utility model has the advantages of machining efficiency is high, effectively simplify manufacturing procedure.

Description

New processingequipment of wind power generation swivel nut and new forms of energy motor shaft

Technical Field

The utility model belongs to the technical field of the lathe work, concretely relates to wind power generation swivel nut and new processingequipment of new forms of energy motor shaft.

Background

The existing vertical drilling machine tool needs to be changed and positioned for multiple times in the drilling and tapping processes, and drilling efficiency of the drilling machine is reduced when the workpiece is drilled and tapped from different directions. Meanwhile, the workpiece needs to be turned and positioned for many times, so that the machining precision of the workpiece is reduced, and the problems of scratching and the like are easily caused. In order to solve the problems, a horizontal double-spindle machining tool appears on the market, drilling and milling cutters of the machine tool are respectively arranged on a left spindle and a right spindle, and the two sides of a workpiece are synchronously turned by stretching of a power head of the left spindle and a power head of the right spindle. However, in the machining process of the machine tool, the left main shaft and the right main shaft can slide, chips can directly fall on the slide rails, and the falling chips cannot be cleaned in time, so that the normal machining of the machine tool is influenced. In addition, for parts with deep holes such as screw sleeves and motor shafts, the existing machining tool usually needs to adopt a lathe to respectively turn and mill two ends of a workpiece, then a deep hole drilling machine is used for drilling and machining two ends of the workpiece, then a numerical control machine is used for turning internal threads, and the outer part of the workpiece needs to be turned and shaped, so that the whole machining steps are complicated, and the machining precision is uncontrollable due to excessive working procedures. Meanwhile, the required machine tool occupies a large space area due to excessive machining processes.

In order to solve the defects of the prior art, people have long searched for and put forward various solutions. For example, the chinese patent literature discloses a vertical tool rest double-spindle compound machine tool [201910526847.6], which includes a base provided with a first upright, a first spindle, a second upright, and a second spindle, wherein the base is provided with a first machining channel and a second machining channel which are bilaterally symmetrically distributed, the first upright and the first spindle are located in the first machining channel, and the second upright and the second spindle are located in the second machining channel; and the first stand column and the second stand column are respectively provided with a tool rest assembly for turning an inner circle, turning an outer circle, turning an end face, drilling, boring, reaming, turning internal and external threads and milling.

The problem that the horizontal drilling machine processing cuttings drop is solved to a certain extent by the scheme, but a plurality of defects still exist in the scheme, such as the problem that the processing procedure of shaft workpieces is complicated.

Disclosure of Invention

The utility model aims at the above-mentioned problem, provide a reasonable in design, simplify the new processingequipment of wind power generation swivel nut and new forms of energy motor shaft of work piece manufacturing procedure such as axle sleeve.

In order to achieve the above purpose, the utility model adopts the following technical proposal: a novel processing device for a wind power generation threaded sleeve and a new energy motor shaft comprises a main base body, wherein two sides of the upper end of the main base body are respectively provided with a transverse moving base body through a transverse sliding mechanism, the transverse moving base body is connected with a longitudinal moving base body through a longitudinal sliding mechanism, a turret mechanism and a drilling mechanism are arranged on the longitudinal moving base body, and a double-barrel main shaft mechanism positioned between the transverse moving base bodies is arranged on the main base body. The workpiece is placed into the double-cylinder main shaft mechanism to be clamped, the left and right tool turret mechanisms simultaneously machine two ends of the workpiece and the inner guide hole, the drilling mechanisms are used for simultaneously drilling holes in the two ends of the workpiece, internal threads are machined after deep hole machining is completed, and all inner holes are machined. And then, jacking an inner chamfer and processing the excircle of the workpiece. The processing of the screw sleeve can be realized by only two procedures, the whole processing procedure is simplified, and the processing precision of the shaft sleeve workpiece is improved.

In the wind power generation swivel nut and new energy motor shaft machining device, the transverse sliding mechanism comprises a transverse guide rail which is arranged at the upper end of the main base body in parallel, a transverse guide block which is connected with the transverse guide rail in a sliding mode is arranged at the lower end of the transverse base body, and a transverse lead screw assembly is arranged between the main base body and the transverse base body. The transverse sliding mechanism drives the cutter tower mechanism and the drilling mechanism to transversely feed, so that synchronous turning of two ends of the workpiece is realized.

In the wind power generation swivel nut and new energy motor shaft machining device, the transverse lead screw assembly comprises a pair of transverse lead screw base bodies fixedly connected with the main base body, a transverse driving lead screw is installed between the transverse lead screw base bodies through a bearing, the transverse driving lead screw is in transmission connection with a transverse driving motor fixed on the transverse lead screw base body through a connector, and a transverse threaded cylinder in threaded connection with the transverse driving lead screw is installed at the lower end of the transverse lead screw base body through the transverse driving base body. The transverse lead screw assembly drives the transverse moving base body to move stably, and the feeding accuracy of the tool turret mechanism and the drilling mechanism is guaranteed.

In the new processing device for the wind power generation threaded sleeve and the new energy motor shaft, the longitudinal sliding mechanism comprises a longitudinal guide rail which is arranged at the upper end of the transverse moving base body in parallel, a longitudinal guide block which is connected with the longitudinal guide rail in a sliding manner is arranged at the lower end of the longitudinal moving base body, and a longitudinal lead screw assembly is arranged between the transverse moving base body and the longitudinal moving base body. The longitudinal sliding mechanism usually realizes the moving switching of the tool turret mechanism and the drilling mechanism, and the tool turret mechanism and the drilling mechanism are quickly adjusted to an internal thread cutting state after the drilling of the workpiece is finished, so that the machining efficiency of the workpiece is improved.

In the new processing device for the wind power generation threaded sleeve and the new energy motor shaft, the longitudinal lead screw assembly comprises a pair of longitudinal lead screw base bodies fixedly connected with the transverse moving base bodies, a longitudinal driving lead screw is arranged between the longitudinal lead screw base bodies through a bearing, the longitudinal driving lead screw is in transmission connection with a longitudinal driving motor fixed on the longitudinal lead screw base bodies through a connector, and a longitudinal thread cylinder in threaded connection with the longitudinal driving lead screw is arranged at the lower end of the longitudinal moving base body through the longitudinal driving base body. The longitudinal lead screw assembly ensures the tool setting precision of the workpiece, the tool turret mechanism and the drilling mechanism.

In the new machining device for the wind power generation threaded sleeve and the new energy motor shaft, the tool turret mechanism comprises a tool turret base arranged at the upper end of a longitudinal moving base body, a gearbox body is arranged at the upper end of the tool turret base and is in transmission connection with the tool turret motor, the output end of the gearbox body is connected with a rotary tool rest, and any one or more combinations of a thread cutting tool, a chamfering tool, a turning tool, a slotting tool, a reaming tool, a low-cutter tool and a boring tool are arranged on the rotary tool rest. The rotary tool rest is driven by the turret motor to rotate, so that the tool switching is realized, and the processing requirements of boring, slotting, threading and the like of a workpiece are met.

In foretell wind power generation swivel nut and new forms of energy motor shaft newly-processing device, drilling mechanism is including installing the drilling base in the longitudinal movement pedestal upper end, and drilling base block that can longitudinal movement adjusting position relatively drilling base is installed to drilling base upper end, installs the drilling cutter in the drilling base. When the drilling base and the drilling base block move to the two sides of the double-cylinder spindle mechanism, the central axis of a drilling tool of the drilling base and the central axis of a workpiece are matched, and rapid machining can be realized without further tool setting.

In the new machining device for the wind power generation threaded sleeve and the new energy motor shaft, the double-cylinder main shaft mechanism comprises a main shaft base arranged in the middle of the upper end of the main base body, the upper end of the main shaft base is provided with a main shaft box, a clamping cylinder is rotatably arranged in the main shaft box, and the back of the main base body is provided with a main shaft driving assembly in transmission connection with the clamping cylinder; the main shaft driving assembly comprises a main shaft driving motor, the output end of the main shaft driving motor is in transmission connection with the clamping cylinder through a belt pulley assembly, a tension wheel which is tightly attached to the belt pulley assembly is installed in the main shaft base in a rotating mode, an auxiliary motor is installed on one side of the main shaft driving motor, and the output end of the auxiliary motor is in transmission connection with the output end of the main shaft driving motor through the belt pulley assembly. The clamping cylinder rotates under the driving of the main shaft driving assembly, and the workpiece rotates synchronously under the action of the clamping force and is matched with the cutter tower mechanisms on the two sides and the drilling mechanism to realize double-end machining.

In the wind power generation threaded sleeve and new energy motor shaft machining device, the main base body comprises a base and an installation base arranged at the upper end of the base, an installation inclined plane for installing the transverse moving base body is arranged on the installation base, and an installation groove for fixing the transverse sliding mechanism is formed in the installation inclined plane; the base is provided with a discharge port positioned below the double-cylinder main shaft mechanism, a supporting frame is arranged in the base, and supporting feet are arranged at the lower end of the base. The main base supports components such as a sliding mechanism, and the like, and cuttings around the double-cylinder main shaft mechanism are timely discharged from the discharge port, so that the interference of the normal work of a workpiece is avoided. And all the processing mechanisms are integrally loaded on the main base body, so that the floor area of the machine tool is reduced.

In the new machining device for the wind power generation threaded sleeve and the new energy motor shaft, a plurality of first protective baffles which are overlapped, telescopically connected are respectively connected between two sides of the double-cylinder main shaft mechanism and the transverse moving seat body, and the first protective baffles are opposite to the transverse sliding mechanism and slide in a limiting manner with the transverse sliding mechanism; a plurality of second protective baffles which are overlapped and telescopically connected are respectively connected between the longitudinal moving seat body and the transverse moving seat body, and the second protective baffles are opposite to the longitudinal sliding mechanism and slide in a limiting way with the longitudinal sliding mechanism. The protective baffle plate moves synchronously along with the transverse moving seat body and the longitudinal moving seat body and stretches out and draws back, and the protective baffle plate always covers the transverse sliding mechanism and the longitudinal sliding mechanism, so that the whole machining device is well protected, and the cutting is prevented from falling into the guide rail.

Compared with the prior art, the utility model has the advantages of: the processing steps of turning, drilling, internal thread processing and the like of the workpiece can be realized through a single machine tool, the processing procedure of the workpiece is simplified, and the processing precision of the workpiece is improved; the tool turret mechanism and the drilling mechanism are symmetrically arranged on two sides of the double-barrel spindle mechanism, so that two ends of a shaft workpiece are synchronously machined, and the machining efficiency of the workpiece is improved; the telescopic protective baffle protects the protective baffle, and the cutting is prevented from falling into the interior of the guide rail to influence the processing feed.

Drawings

Fig. 1 is a schematic structural diagram of the present invention;

fig. 2 is a schematic structural view from another perspective of the present invention;

FIG. 3 is another schematic structural view of the present invention;

FIG. 4 is a partially enlarged illustration of the present invention;

fig. 5 is a schematic structural view of the lateral sliding mechanism and the longitudinal sliding mechanism of the present invention;

fig. 6 is a schematic structural view of the main seat body of the present invention;

in the figure, a main seat body 1, a base 11, a mounting seat 12, a mounting inclined plane 13, a mounting groove 14, a discharge port 15, a support frame 16, a support foot 17, a first protective baffle 18, a second protective baffle 19, a transverse sliding mechanism 2, a transverse guide rail 21, a transverse guide block 22, a transverse screw seat body 23, a transverse drive screw 24, a transverse drive motor 25, a transverse drive seat body 26, a transverse threaded cylinder 27, a transverse sliding seat body 3, a longitudinal sliding mechanism 4, a longitudinal guide rail 41, a longitudinal guide block 42, a longitudinal screw seat body 43, a longitudinal drive screw 44, a longitudinal drive motor 45, a longitudinal drive seat body 46, a longitudinal threaded cylinder 47, a longitudinal shift seat body 5, a turret mechanism 6, a turret base 61, a gearbox body 62, a turret motor 63, a rotary tool post 64, a drilling mechanism 7, a drilling base 71, a drilling base block 72, a double-cylinder spindle mechanism 8, a spindle base 81, a spindle box 82, a clamping cylinder 83, a spindle drive motor 84, a belt pulley assembly 85, a tension pulley 86 and an auxiliary motor 87.

Detailed Description

The present invention will be described in further detail with reference to the accompanying drawings and specific embodiments.

As shown in fig. 1, a new processing device for a wind power generation threaded sleeve and a new energy motor shaft comprises a main seat body 1, wherein the main seat body 1 is used as a base, two sides of the upper end of the main seat body are respectively provided with a transverse moving seat body 3 through transverse sliding mechanisms 2, and each transverse sliding mechanism 2 is independently driven to drive the transverse moving seat body 3 to transversely move. The transverse moving seat body 3 is connected with a longitudinal moving seat body 5 through a longitudinal sliding mechanism 4, a tool turret mechanism 6 and a drilling mechanism 7 are installed on the longitudinal moving seat body 5, the tool turret mechanism 6 and the drilling mechanism 7 move longitudinally under the driving of the longitudinal sliding mechanism 4, and a tool fixed by the tool turret mechanism 6 or the drilling mechanism 7 is opposite to the end head of a workpiece. The main base body 1 is provided with a double-cylinder main shaft mechanism 8 positioned between the transverse moving base bodies 3, after the double-cylinder main shaft mechanism 8 clamps and fixes the shaft workpiece, two ends of the workpiece are exposed, and the turret mechanism 6 and the drilling mechanism 7 perform synchronous or asynchronous cutting and drilling processing on two ends of the workpiece.

As shown in fig. 3, the transverse sliding mechanism 2 is disposed obliquely as a whole, the transverse sliding mechanism 2 includes a transverse guide rail 21 installed in parallel at the upper end of the main seat body 1, a transverse guide block 22 slidably connected with the transverse guide rail 21 is installed at the lower end of the transverse seat body 3, the transverse guide block 22 is arranged along the axis of the transverse guide rail 21, and the transverse guide block 22 is provided with a sliding slot slidably connected with the transverse guide rail 21. A transverse screw rod component is arranged between the main seat body 1 and the transverse moving seat body 3. The transverse screw assemblies are arranged between the transverse rails 21, and the transverse screw assemblies are independently driven.

As can be seen from fig. 4-5, the transverse screw assembly includes a pair of transverse screw bases 23 fixedly connected to the main base 1, and a transverse driving screw 24 is mounted between the transverse screw bases 23 through a bearing to reduce the rotational friction of the transverse driving screw. The transverse driving screw 24 is in transmission connection with a transverse driving motor 25 fixed on the transverse screw seat body 23 through a connector, and a transverse threaded cylinder 27 in threaded connection with the transverse driving screw 24 is installed at the lower end of the transverse seat body 3 through a transverse driving seat body 26. The transverse driving seat body 26 and the transverse threaded cylinder 27 are in axial threaded transmission along the transverse driving lead screw 24. Wherein the transverse driving motor 25 is equipped with a transmission structure such as gear change. Providing a large drive torque for the transverse drive screw 24.

Further, the longitudinal moving seat body 5 is driven by the longitudinal sliding mechanism 4 to move, and the moving track of the longitudinal moving seat body relative to the transverse moving seat body 3 is perpendicular to the moving track of the transverse moving seat body 3 relative to the main seat body 1. The longitudinal sliding mechanism 4 comprises a longitudinal guide rail 41 which is arranged on the upper end of the transverse moving seat body 3 in parallel, a longitudinal guide block 42 which is connected with the longitudinal guide rail 41 in a sliding way is arranged at the lower end of the longitudinal moving seat body 5, and a longitudinal lead screw component is arranged between the transverse moving seat body 3 and the longitudinal moving seat body 5. The upper end of the longitudinal moving seat body 5 is also provided with a groove body for installing a longitudinal lead screw component, the longitudinal moving seat body 5 moves along the inclined plane at the upper end of the longitudinal moving seat body 5 to adjust the positions of the turret mechanism 6 and the drilling mechanism 7, and the outer side of the transverse moving seat body 3 is covered with a protective cover body.

As shown in fig. 5, the longitudinal screw assembly includes a pair of longitudinal screw seats 43 fixedly connected to the traverse seat 3, and the longitudinal screw seats 43 are installed at two ends of the upper end slot body of the longitudinal screw seat 5. A longitudinal driving lead screw 44 is arranged between the longitudinal lead screw seat bodies 43 through a bearing, the longitudinal driving lead screw 44 is in transmission connection with a longitudinal driving motor 45 fixed on the longitudinal lead screw seat bodies 43 through a connector, and a longitudinal thread cylinder 47 in threaded connection with the longitudinal driving lead screw 44 is arranged at the lower end of the longitudinal moving seat body 5 through a longitudinal driving seat body 46. The transmission mode of the longitudinal lead screw component is similar to that of the transverse lead screw component, and a longitudinal driving motor 45 of the longitudinal lead screw component is independently controlled to drive the longitudinal moving base body 5 to move so as to realize the switching of the tool turret mechanism 6 and the drilling mechanism 7. Meanwhile, the tool setting of the tool turret mechanism 6 and the drilling mechanism 7 and the workpiece is realized, in the process that the transverse moving base body 3 transversely moves to drive the tool to feed, the longitudinal driving motor 45 drives the longitudinal moving base body 5 to move, and the tool is radially fed along the workpiece to meet the requirement of finish machining of the workpiece.

In addition, as shown in fig. 3-4, the turret mechanism 6 includes a turret base 61 mounted on the upper end of the longitudinal movement seat body 5, a transmission case 62 is mounted on the upper end of the turret base 61, the transmission case 62 is in transmission connection with a turret motor 63, an output end of the transmission case 62 is connected with a rotary tool rest 64, and any one or more combinations of a thread cutting tool, a chamfering tool, a turning tool, a slotting tool, a reaming tool, a low-cutting tool and a boring tool are mounted on the rotary tool rest 64. The turret base 61 is disposed adjacent to the drilling mechanism 7, and the gear box 62 and the turret motor 63 drive the rotary tool post 64 to rotate by a fixed angle each time, and after the rotation is stopped, the fixed tool is opposite to the central axis of the workpiece.

Meanwhile, the drilling mechanism 7 comprises a drilling base 71 arranged at the upper end of the longitudinal moving seat body 5, a drilling base block 72 capable of longitudinally moving and adjusting the position relative to the drilling base 71 is arranged at the upper end of the drilling base 71, the drilling base block 72 is tightly pressed and fixed with the drilling base 71 through a screw, and a drilling tool is arranged in the drilling base 71. The drilling base 72 slidably adjusts the position of the drilling tool relative to the drilling base 71 so that the drilling tool is opposed to the center of the workpiece. The transverse sliding mechanism 2 provides a feed torque for the drilling tool.

The double-cylinder spindle mechanism 8 includes a spindle base 81 mounted on the middle of the upper end of the main body 1, a spindle head 82 mounted on the upper end of the spindle base 81, a clamping cylinder 83 rotatably mounted inside the spindle head 82, and a workpiece clamped and fixed by a clamping means such as pneumatic means inside the clamping cylinder 83. The clamping cylinder 83 is internally communicated, and the shaft workpiece is inserted into the clamping cylinder 83 with the end exposed. The back of the main seat body 1 is provided with a main shaft driving component in transmission connection with the clamping cylinder 83; the spindle driving assembly comprises a spindle driving motor 84, the output end of the spindle driving motor 84 is in transmission connection with the clamping cylinder 83 through a belt pulley assembly 85, and the belt pulley assembly 85 realizes variable-speed transmission of the clamping cylinder 83 and drives the clamping cylinder 83 to rotate at a high speed. A tension wheel 86 which is attached to and pressed against the belt pulley assembly 85 is rotatably mounted in the spindle base 81 to keep the belt pulley assembly 85 in a tight state. An auxiliary motor 87 is installed on one side of the main shaft driving motor 84, the output end of the auxiliary motor 87 is in transmission connection with the output end of the main shaft driving motor 84 through a belt wheel assembly 85, and the auxiliary motor 87 and the main shaft driving motor 84 realize different rotation adjustment of the clamping cylinder 83 through switching to adapt to the processing requirements of different workpieces and parts.

As shown in fig. 6, the main body 1 includes a base 11 and a mounting seat 12 disposed at an upper end of the base 11. The mounting seat 12 has a slope structure and is provided with a mounting inclined plane 13 for mounting the traversing seat body 3, and the mounting inclined plane 13 is provided with a mounting groove 14 for fixing the traversing sliding mechanism 2. The mounting grooves 14 on both sides of the mounting seat 12 are independently arranged and separated from each other. The base 11 is provided with a discharge port 15 positioned below the double-cylinder main shaft mechanism 8, and two sides inside the discharge port 15 are provided with discharge inclined plates. A supporting frame 16 is arranged in the base 11, and a supporting foot 17 is arranged at the lower end of the base 11. The supporting foot 17 is connected with the base 11 through a screw and a damping pad is arranged between the supporting foot and the base 11.

Preferably, the double-cylinder spindle mechanism 8 is fixedly connected with the main base body 1, a plurality of first protective baffles 18 which are overlapped and telescopically connected are respectively connected between two sides of the double-cylinder spindle mechanism 8 and the transverse base body 3, the first protective baffles 18 are opposite to the transverse sliding mechanism 2 and slide in a limiting manner with the transverse sliding mechanism 2, and after the first protective baffles 18 extend, the first protective baffles cover the transverse sliding mechanism 2, so that chips are prevented from falling into the transverse guide rail 21 to influence the sliding of the transverse guide block 22. A plurality of second protective baffles 19 which are overlapped and telescopically connected are respectively connected between the longitudinal moving seat body 5 and the transverse moving seat body 3, and the second protective baffles 19 are opposite to the longitudinal sliding mechanism 4 and slide in a limiting way with the longitudinal sliding mechanism 4. The second protective baffle 19 is covered above the longitudinal sliding mechanism 4 after being extended, so that the chips are prevented from falling into the longitudinal guide rail 41 to influence the sliding of the longitudinal guide block 42.

Example one

In this embodiment, the transverse sliding mechanisms 2 on both sides of the upper end of the main base body 1 drive the transverse moving base body 3 to move synchronously, so as to drive the turret mechanism 6 and the drilling mechanism 7 to process both ends of the workpiece synchronously. Meanwhile, the longitudinal sliding mechanism 4 drives the longitudinal moving seat body 5 to move synchronously, and the tool turret mechanism 6 and the drilling mechanism 7 are switched synchronously. The turret mechanism 6 rotates synchronously, the installed cutters are kept consistent, and the selected cutters are the same after each switching. The processing modes of the two ends of the workpiece are kept consistent, and the method is suitable for processing the symmetrical workpieces.

Example two

In this embodiment, the transverse sliding mechanisms 2 on both sides of the upper end of the main seat body 1 drive the transverse moving seat body 3 to move asynchronously, meanwhile, the longitudinal sliding mechanism 4 drives the longitudinal moving seat body 5 to move asynchronously, and the turret mechanism 6 and the drilling mechanism 7 are switched asynchronously. The turret mechanism 6 rotates only by water, and the selected cutters are different. The processing modes of the two ends of the workpiece are different but synchronous, and the method is suitable for the rapid processing of the asymmetrical workpiece.

EXAMPLE III

In this embodiment, the transverse sliding mechanism 2 on only one side of the upper end of the main seat body 1 drives the transverse moving seat body 3 to move, and the longitudinal sliding mechanism 4 on the transverse moving seat body 3 independently drives the longitudinal moving seat body 5 to move. The transverse sliding mechanism 2, the longitudinal sliding mechanism 4 and the turret mechanism 6 on the other side stop working. The turret mechanism 6 on the movable longitudinal moving seat body 5 normally rotates, only one end of a workpiece is machined, and the requirements of turning and drilling of a conventional bar workpiece are met.

In summary, the principle of the present embodiment is: the transverse sliding mechanism 2 provides transverse sliding torque for the tool turret mechanism 6 and the drilling mechanism 7 to drive a tool to feed, and meanwhile, the double-cylinder main shaft mechanism 8 clamps a workpiece and provides rotating torque, so that the workpiece drilling machining is realized; the longitudinal sliding mechanism 4 drives the tool turret mechanism 6 and the drilling mechanism 7 to switch the positions of the tool turret mechanism and the drilling mechanism relative to the double-barrel spindle mechanism 8, so that the integration of workpiece drilling and internal thread turning is realized.

The specific embodiments described herein are merely illustrative of the spirit of the invention. Various modifications, additions and substitutions may be made by those skilled in the art to the specific embodiments described without departing from the spirit of the invention or exceeding the scope of the invention as defined in the accompanying claims.

Although the terms of the main housing 1, the base 11, the mounting base 12, the mounting inclined surface 13, the mounting groove 14, the discharge opening 15, the support frame 16, the support foot 17, the first guard plate 18, the second guard plate 19, the lateral sliding mechanism 2, the lateral guide rail 21, the lateral guide block 22, the lateral screw housing 23, the lateral drive screw 24, the lateral drive motor 25, the lateral drive housing 26, the lateral threaded cylinder 27, the lateral sliding housing 3, the longitudinal sliding mechanism 4, the longitudinal guide rail 41, the longitudinal guide block 42, the longitudinal screw housing 43, the longitudinal drive screw 44, the longitudinal drive motor 45, the longitudinal drive housing 46, the longitudinal threaded cylinder 47, the longitudinal displacement housing 5, the turret mechanism 6, the turret base 61, the gear box 62, the turret motor 63, the rotary tool post 64, the drilling mechanism 7, the drilling base 71, the drilling base block 72, the dual-cylinder spindle mechanism 8, the spindle base 81, the spindle housing 82, the clamping cylinder 83, the spindle drive motor 84, the pulley assembly 85, the tension pulley 86, the sub-motor 87, and the like are used more frequently, other terms are not excluded. These terms are used merely to more conveniently describe and explain the nature of the present invention; they are to be construed in a manner that is inconsistent with the spirit of the invention.

Claims

1. The utility model provides a wind power generation swivel nut and new processingequipment of new forms of energy motor shaft, includes main pedestal (1), its characterized in that, main pedestal (1) upper end both sides install sideslip pedestal (3) through lateral sliding mechanism (2) respectively, sideslip pedestal (3) be connected with through longitudinal sliding mechanism (4) and indulge and move pedestal (5), indulge and move the pedestal (5) on install turret mechanism (6) and drilling mechanism (7), main pedestal (1) on install and be located binocular main shaft mechanism (8) between sideslip pedestal (3).

2. The new processing device for the wind power generation screw sleeve and the new energy motor shaft as claimed in claim 1, wherein the transverse sliding mechanism (2) comprises a transverse guide rail (21) installed in parallel at the upper end of the main base body (1), a transverse guide block (22) slidably connected with the transverse guide rail (21) is installed at the lower end of the transverse base body (3), and a transverse lead screw assembly is arranged between the main base body (1) and the transverse base body (3).

3. The new processing device for the wind power generation screw sleeve and the new energy motor shaft as claimed in claim 2, wherein the transverse screw assembly comprises a pair of transverse screw base bodies (23) fixedly connected with the main base body (1), a transverse driving screw (24) is installed between the transverse screw base bodies (23) through a bearing, the transverse driving screw (24) is in transmission connection with a transverse driving motor (25) fixed on the transverse screw base body (23) through a connector, and a transverse threaded cylinder (27) in threaded connection with the transverse driving screw (24) is installed at the lower end of the transverse base body (3) through a transverse driving base body (26).

4. The new processing device for the wind power generation screw sleeve and the new energy motor shaft as claimed in claim 1, wherein the longitudinal sliding mechanism (4) comprises a longitudinal guide rail (41) installed in parallel at the upper end of the traverse base body (3), a longitudinal guide block (42) slidably connected with the longitudinal guide rail (41) is installed at the lower end of the longitudinal base body (5), and a longitudinal lead screw assembly is arranged between the traverse base body (3) and the longitudinal base body (5).

5. The new processing device for the wind power generation screw sleeve and the new energy motor shaft as claimed in claim 4, wherein the longitudinal screw assembly comprises a pair of longitudinal screw base bodies (43) fixedly connected with the traverse base body (3), a longitudinal driving screw (44) is installed between the longitudinal screw base bodies (43) through a bearing, the longitudinal driving screw (44) is in transmission connection with a longitudinal driving motor (45) fixed on the longitudinal screw base bodies (43) through a connector, and a longitudinal threaded cylinder (47) in threaded connection with the longitudinal driving screw (44) is installed at the lower end of the longitudinal moving base body (5) through a longitudinal driving base body (46).

6. The new processing device for the wind power generation thread insert and the new energy motor shaft according to claim 1, wherein the turret mechanism (6) comprises a turret base (61) installed at the upper end of the longitudinal moving base body (5), a gearbox body (62) is installed at the upper end of the turret base (61), the gearbox body (62) is in transmission connection with a turret motor (63), a rotary tool rest (64) is connected to the output end of the gearbox body (62), and any one or more combinations of a thread cutting tool, a chamfering tool, a turning tool, a slotting tool, a reaming tool, a low-cutting tool and a boring tool are installed on the rotary tool rest (64).

7. The new processing device for the wind power generation screw sleeve and the new energy motor shaft as claimed in claim 1, wherein the drilling mechanism (7) comprises a drilling base (71) installed at the upper end of the longitudinal moving seat body (5), a drilling base block (72) capable of longitudinally moving and adjusting the position relative to the drilling base (71) is installed at the upper end of the drilling base (71), and a drilling tool is installed in the drilling base (71).

8. The new processing device for the wind power generation screw sleeve and the new energy motor shaft is characterized in that the double-cylinder main shaft mechanism (8) comprises a main shaft base (81) arranged in the middle of the upper end of the main seat body (1), the main shaft base (82) is arranged at the upper end of the main shaft base (81), a clamping cylinder (83) is rotatably arranged in the main shaft base (82), and a main shaft driving component in transmission connection with the clamping cylinder (83) is arranged at the back of the main seat body (1); the spindle driving assembly comprises a spindle driving motor (84), the output end of the spindle driving motor (84) is in transmission connection with a clamping cylinder (83) through a belt wheel assembly (85), a tension wheel (86) which is attached and pressed tightly with the belt wheel assembly (85) is installed in the spindle base (81) in a rotating mode, an auxiliary motor (87) is installed on one side of the spindle driving motor (84), and the output end of the auxiliary motor (87) is in transmission connection with the output end of the spindle driving motor (84) through the belt wheel assembly (85).

9. The new processing device for the wind power generation threaded sleeve and the new energy motor shaft as claimed in claim 1, wherein the main base body (1) comprises a base (11) and a mounting base (12) arranged at the upper end of the base (11), the mounting base (12) is provided with a mounting inclined surface (13) for mounting the transverse moving base body (3), and the mounting inclined surface (13) is provided with a mounting groove (14) for fixing the transverse sliding mechanism (2); the device is characterized in that a discharge port (15) positioned below the double-cylinder main shaft mechanism (8) is formed in the base (11), a supporting frame (16) is arranged in the base (11), and supporting feet (17) are arranged at the lower end of the base (11).

10. The new processing device for the wind power generation screw sleeve and the new energy motor shaft as claimed in claim 1, wherein a plurality of first protective baffles (18) which are overlapped and telescopically connected are respectively connected between two sides of the double-cylinder main shaft mechanism (8) and the transverse moving seat body (3), and the first protective baffles (18) are opposite to the transverse sliding mechanism (2) and slide in a limiting manner with the transverse sliding mechanism (2); a plurality of second protective baffles (19) which are overlapped, telescopically connected are respectively connected between the longitudinal moving seat body (5) and the transverse moving seat body (3), and the second protective baffles (19) are opposite to the longitudinal sliding mechanism (4) and slide in a limiting way with the longitudinal sliding mechanism (4).