CN104551719A - Decentring type turn-milling machine tool provided with positive axis with five-axis structure - Google Patents
Decentring type turn-milling machine tool provided with positive axis with five-axis structure Download PDFInfo
- Publication number
- CN104551719A CN104551719A CN201510036881.7A CN201510036881A CN104551719A CN 104551719 A CN104551719 A CN 104551719A CN 201510036881 A CN201510036881 A CN 201510036881A CN 104551719 A CN104551719 A CN 104551719A
- Authority
- CN
- China
- Prior art keywords
- axle
- axial filament
- filament bar
- axis
- group
- Prior art date
- Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
- Pending
Links
- 238000003801 milling Methods 0.000 title claims abstract description 36
- 238000009434 installation Methods 0.000 claims description 85
- 238000005520 cutting process Methods 0.000 claims description 71
- 230000005540 biological transmission Effects 0.000 claims description 42
- 230000008878 coupling Effects 0.000 claims description 32
- 238000010168 coupling process Methods 0.000 claims description 32
- 238000005859 coupling reaction Methods 0.000 claims description 32
- 238000010276 construction Methods 0.000 claims description 24
- 238000003754 machining Methods 0.000 abstract description 3
- 230000008901 benefit Effects 0.000 abstract description 2
- 238000007493 shaping process Methods 0.000 description 10
- 238000006243 chemical reaction Methods 0.000 description 8
- 230000006872 improvement Effects 0.000 description 8
- 238000000034 method Methods 0.000 description 7
- 230000007246 mechanism Effects 0.000 description 4
- 230000008569 process Effects 0.000 description 4
- 238000005516 engineering process Methods 0.000 description 3
- 238000005266 casting Methods 0.000 description 2
- 230000007812 deficiency Effects 0.000 description 2
- 238000005096 rolling process Methods 0.000 description 2
- 230000001360 synchronised effect Effects 0.000 description 2
- 230000009471 action Effects 0.000 description 1
- 230000009286 beneficial effect Effects 0.000 description 1
- 230000000052 comparative effect Effects 0.000 description 1
- 238000000465 moulding Methods 0.000 description 1
- 238000005457 optimization Methods 0.000 description 1
- 239000002994 raw material Substances 0.000 description 1
- 238000010079 rubber tapping Methods 0.000 description 1
- 239000002699 waste material Substances 0.000 description 1
Classifications
-
- B—PERFORMING OPERATIONS; TRANSPORTING
- B23—MACHINE TOOLS; METAL-WORKING NOT OTHERWISE PROVIDED FOR
- B23P—METAL-WORKING NOT OTHERWISE PROVIDED FOR; COMBINED OPERATIONS; UNIVERSAL MACHINE TOOLS
- B23P23/00—Machines or arrangements of machines for performing specified combinations of different metal-working operations not covered by a single other subclass
- B23P23/02—Machine tools for performing different machining operations
-
- B—PERFORMING OPERATIONS; TRANSPORTING
- B23—MACHINE TOOLS; METAL-WORKING NOT OTHERWISE PROVIDED FOR
- B23Q—DETAILS, COMPONENTS, OR ACCESSORIES FOR MACHINE TOOLS, e.g. ARRANGEMENTS FOR COPYING OR CONTROLLING; MACHINE TOOLS IN GENERAL CHARACTERISED BY THE CONSTRUCTION OF PARTICULAR DETAILS OR COMPONENTS; COMBINATIONS OR ASSOCIATIONS OF METAL-WORKING MACHINES, NOT DIRECTED TO A PARTICULAR RESULT
- B23Q1/00—Members which are comprised in the general build-up of a form of machine, particularly relatively large fixed members
- B23Q1/25—Movable or adjustable work or tool supports
- B23Q1/44—Movable or adjustable work or tool supports using particular mechanisms
- B23Q1/56—Movable or adjustable work or tool supports using particular mechanisms with sliding pairs only, the sliding pairs being the first two elements of the mechanism
- B23Q1/60—Movable or adjustable work or tool supports using particular mechanisms with sliding pairs only, the sliding pairs being the first two elements of the mechanism two sliding pairs only, the sliding pairs being the first two elements of the mechanism
- B23Q1/62—Movable or adjustable work or tool supports using particular mechanisms with sliding pairs only, the sliding pairs being the first two elements of the mechanism two sliding pairs only, the sliding pairs being the first two elements of the mechanism with perpendicular axes, e.g. cross-slides
- B23Q1/621—Movable or adjustable work or tool supports using particular mechanisms with sliding pairs only, the sliding pairs being the first two elements of the mechanism two sliding pairs only, the sliding pairs being the first two elements of the mechanism with perpendicular axes, e.g. cross-slides a single sliding pair followed perpendicularly by a single sliding pair
- B23Q1/626—Movable or adjustable work or tool supports using particular mechanisms with sliding pairs only, the sliding pairs being the first two elements of the mechanism two sliding pairs only, the sliding pairs being the first two elements of the mechanism with perpendicular axes, e.g. cross-slides a single sliding pair followed perpendicularly by a single sliding pair followed perpendicularly by a single sliding pair
-
- B—PERFORMING OPERATIONS; TRANSPORTING
- B23—MACHINE TOOLS; METAL-WORKING NOT OTHERWISE PROVIDED FOR
- B23Q—DETAILS, COMPONENTS, OR ACCESSORIES FOR MACHINE TOOLS, e.g. ARRANGEMENTS FOR COPYING OR CONTROLLING; MACHINE TOOLS IN GENERAL CHARACTERISED BY THE CONSTRUCTION OF PARTICULAR DETAILS OR COMPONENTS; COMBINATIONS OR ASSOCIATIONS OF METAL-WORKING MACHINES, NOT DIRECTED TO A PARTICULAR RESULT
- B23Q5/00—Driving or feeding mechanisms; Control arrangements therefor
- B23Q5/22—Feeding members carrying tools or work
- B23Q5/34—Feeding other members supporting tools or work, e.g. saddles, tool-slides, through mechanical transmission
- B23Q5/38—Feeding other members supporting tools or work, e.g. saddles, tool-slides, through mechanical transmission feeding continuously
- B23Q5/40—Feeding other members supporting tools or work, e.g. saddles, tool-slides, through mechanical transmission feeding continuously by feed shaft, e.g. lead screw
- B23Q5/406—Feeding other members supporting tools or work, e.g. saddles, tool-slides, through mechanical transmission feeding continuously by feed shaft, e.g. lead screw with means for meshing screw and nut
Landscapes
- Engineering & Computer Science (AREA)
- Mechanical Engineering (AREA)
- Physics & Mathematics (AREA)
- Optics & Photonics (AREA)
- Machine Tool Units (AREA)
- Turning (AREA)
Abstract
The invention discloses a decentring type turn-milling machine tool provided with a positive axis with a five-axis structure. The decentring type turn-milling machine tool comprises a tool body, upright columns, a Z1-axis assembly, a Y1-axis assembly, an X1-axis assembly, a Y3-axis assembly and an X3-axis assembly. The Z1-axis assembly comprises a Z1-axis servo motor, a Z1-axis lead screw and a positive spindle of the machine tool; the Y1-axis assembly comprises first cross blocks, a Y1-axis servo motor, first slide seats and a Y1-axis lead screw; the X1-axis assembly comprises a first tool mounting plate, an X1-axis servo motor and an X1-axis lead screw; the Y3-axis assembly comprises second cross blocks, a Y3-axis servo motor, second slide seats and a Y3-axis lead screw; the X3-axis assembly comprises a second tool mounting plate, an X3-axis servo motor and an X3-axis lead screw. The decentring type turn-milling machine tool has the advantage that technical shortcomings that tools on a decentring type turn-milling machine tool in the prior art are mounted on the same component, each tool only can carry out machining after machining is completed by the corresponding front tool during work, the tools are constrained by one another, the workpiece forming time cannot be effectively optimized and the workpiece forming efficiency is affected can be overcome.
Description
Technical field
What the present invention relates to that a kind of positive axis has five axle construction walks core type turn-milling machine tool.
Background technology
Existing walk on scheming market, this technology of machine tool motion axle is possessed some special knowledge always, and what be instantly most widely used is that three axles that positive axle construction is made up of X1 axle group, Y1 axle group, Z1 axle group walk scheming.The Z1 axle slide plate that three axles walk scheming has a positive main shaft of lathe, be through hole in the positive main shaft of this lathe, the tail end of the positive main shaft of lathe is connected with feeder, workpiece raw material are placed on feeder, after workman edits program, feeder is uninterrupted toward feeding in the positive main shaft of lathe in order, machine tool chief axis clamping bar moves back and forth in Y-axis, coordinate the guide sleeve structure (guide pin bushing can with synchronous electric guide pin bushing, link the exchanges such as guide pin bushing) of lathe or cooperatively interact without the blade row on the slide plate of guide sleeve structure and Y1 axle group, realizing the machine-shaping to workpiece.If workpiece is too complicated, three axle groups of the positive axle construction of lathe cannot one-shot forming time, Z2 axle group can be increased at lathe countershaft, walk scheming with three axles and coordinates afterwards that forming four axles walks scheming; Or increase Z2 axle group, X2 axle group, walk scheming with three axles and coordinates afterwards that forming five axles walks scheming; Or increase Z2 axle group, X2 axle group, Y2 axle group, walk scheming with three axles and coordinates afterwards that forming six axles walks scheming.After such cooperation, facilitate workpiece one-shot forming, the technique such as complete turning, milling, boring, tapping, engraving, inclined hole is shaping, eccentric orfice is shaping.
Y1 axle slide plate in Y1 axle group in positive axle construction can install two row's cutters, two row's cutters exist in the X direction in opposite directions, because Y1 axle slide plate is a complete part, therefore all cutters are synchronization action when X, Y, Z tripartite moves upward, and the technique of required processing can only could be carried out the processing of next technique after a cutter completes stroke by next cutter.This just causes lathe lathe positive axis when processing work to have drawback, and cutter mutually limits to and causes the Workpiece shaping time well not optimized, and affects the shaping efficiency of workpiece.
Summary of the invention
What the object of this invention is to provide that a kind of positive axis has five axle construction walks core type turn-milling machine tool, solve in prior art and walk core type turn-milling machine tool and fix a cutting tool and be all arranged on same part, so when often cutter being worked all must etc. last cutter is completed processing after just can process, cutter mutually limits to and causes the Workpiece shaping time well not optimized, and affects the technological deficiency of the shaping efficiency of workpiece.
For solving the problem, the technical solution used in the present invention is:
What positive axis had five axle construction walks a core type turn-milling machine tool, comprises
Lathe bed;
Be arranged on the column on lathe bed, described column have the through hole along Z-direction;
Be arranged on the Z1 axle group on lathe bed, described Z1 axle group comprises Z1 axle servomotor, Z1 axial filament bar and the positive main shaft of lathe, described Z1 axle servomotor drives the positive main shaft of lathe to reciprocatingly slide along Z-direction on lathe bed by Z1 axial filament bar, the axial line of the positive main shaft of described lathe overlaps with the center line of through hole on column, start Z1 axle servomotor, the power transmission shaft of Z1 axle servomotor drives Z1 axial filament bar to rotate, and realizes the reciprocating motion of the positive main shaft of lathe in Z-direction.
Y1 axle group, described Y1 axle group comprises the hydraulic steering gear adopting cross piece be slidably arranged on column, Y1 axle servomotor, is arranged on the first slide on a hydraulic steering gear adopting cross piece and Y1 axial filament bar, described Y1 axial filament bar is threaded with the first slide and passes the first slide, and one end of Y1 axial filament bar is connected with the power transmission shaft of Y1 axle servomotor; Start Y1 axle servomotor, the power transmission shaft of Y1 axle servomotor drives Y1 axial filament bar to rotate, and realizes a hydraulic steering gear adopting cross piece reciprocatingly sliding in the Y-axis direction.
X1 axle group, described X1 axle group comprises the first Cutting tool installation manner plate be slidably arranged on a hydraulic steering gear adopting cross piece, X1 axle servomotor and X1 axial filament bar, described X1 axial filament bar is threaded with the first Cutting tool installation manner plate and passes the first Cutting tool installation manner plate, and one end of X1 axial filament bar is connected with the power transmission shaft of X1 axle servomotor; Start X1 axle servomotor, the power transmission shaft of X1 axle servomotor drives X1 axial filament bar to rotate, and realizes the first Cutting tool installation manner plate reciprocatingly sliding in the X-axis direction.
Y3 axle group, described Y3 axle group comprises No. two hydraulic steering gear adopting cross pieces be slidably arranged on column, Y3 axle servomotor, is arranged on the second slide on No. two hydraulic steering gear adopting cross pieces and Y3 axial filament bar, described Y3 axial filament bar is threaded with the second slide and passes the second slide, and one end of Y3 axial filament bar is connected with the power transmission shaft of Y3 axle servomotor; Start Y3 axle servomotor, the power transmission shaft of Y3 axle servomotor drives Y3 axial filament bar to rotate, and realizes No. two hydraulic steering gear adopting cross pieces reciprocatingly sliding in the Y-axis direction.
X3 axle group, described X3 axle group comprises the second Cutting tool installation manner plate be slidably arranged on No. two hydraulic steering gear adopting cross pieces, X3 axle servomotor and X3 axial filament bar, described X1 axial filament bar is threaded with the second Cutting tool installation manner plate and passes the second Cutting tool installation manner plate, and one end of X3 axial filament bar is connected with the power transmission shaft of X3 axle servomotor; Start X3 axle servomotor, the power transmission shaft of X3 axle servomotor drives X3 axial filament bar to rotate, and realizes No. two hydraulic steering gear adopting cross pieces reciprocatingly sliding in the X-axis direction.
Cutter structure is arranged on the first Cutting tool installation manner plate and the second Cutting tool installation manner plate by the present invention respectively, without being implicative of each other between cutter, because the first Cutting tool installation manner plate and the second Cutting tool installation manner plate are independently controlled to slide by different servomotors, therefore the cutter on the first Cutting tool installation manner plate and the cutter on the second Cutting tool installation manner plate can realize independent work, thus can avoid unnecessary time waste.When cutter on lathe first Cutting tool installation manner plate is to work pieces process, the independent cutter on the second Cutting tool installation manner plate can carry out the processing of different operation simultaneously simultaneously to workpiece, the molding time of workpiece obtains optimization.
As a further improvement on the present invention, the bottom of the positive main shaft of described lathe arranges Z1 axle slide plate, described Z1 axle slide plate slides is arranged on lathe bed, described Z1 axial filament bar is threaded with Z1 axle slide plate and passes Z1 axle slide plate, one end of Z1 axial filament bar is connected with the power transmission shaft of Z1 axle servomotor, start Z1 axle servomotor, the power transmission shaft of Z1 axle servomotor drives Z1 axial filament bar to rotate, and realizes Z1 axle slide block reciprocatingly sliding in the Z-axis direction.
As a further improvement on the present invention, a described hydraulic steering gear adopting cross piece and No. two hydraulic steering gear adopting cross pieces are all structure as a whole; A hydraulic steering gear adopting cross piece and No. two hydraulic steering gear adopting cross pieces are all structure as a whole, decrease the assembling of crosshead shoe itself, cross slide block is one-body molded, accuracy class is high, avoid due to part processing, the error brought manually is installed, substantially increase self precision of lathe, the Integral lifting accuracy class of lathe, and easy for installation.
Described Z1 axle group also comprises the sliding pair that Z1 axis rule are formed with Z1 axle slide block, and described Z1 axis rule are arranged on lathe bed, and described Z1 axle slide block is arranged on the bottom of Z1 axle slide plate; Z1 axis rail coordinates with Z1 axle slide block, realizes Z1 axle slide plate and moves back and forth in Z-direction, and greatly improves Z1 axle slide plate kinematic accuracy in the Z-axis direction, and the high speed that can realize machine Z-axis moves back and forth, and easy for installation, more easily reaches and runs up.
Described Y1 axle group also comprises the sliding pair that Y1 axis rule are formed near the side of column with a hydraulic steering gear adopting cross piece, and described Y1 axis rule are arranged on column; Y1 axis rail coordinates with a hydraulic steering gear adopting cross piece, realize a hydraulic steering gear adopting cross piece to move back and forth in Y direction, and greatly improve hydraulic steering gear adopting cross piece kinematic accuracy in the Y-axis direction, the high speed that can realize lathe Y-axis moves back and forth, and easy for installation, more easily reach and run up.
Described X1 axle group also comprises the sliding pair that X1 axis rule and hydraulic steering gear adopting cross piece are formed away from the side of column, and described X1 axis is advised and is arranged on the first Cutting tool installation manner plate; X1 axis rail coordinates with a hydraulic steering gear adopting cross piece, realize the first Cutting tool installation manner plate to move back and forth in X-direction, and greatly improve the first Cutting tool installation manner plate kinematic accuracy in the X-axis direction, the high speed that can realize lathe X-axis moves back and forth, and easy for installation, more easily reach and run up.
Described Y3 axle group also comprises the sliding pair that Y3 axis rule are formed near the side of column with No. two hydraulic steering gear adopting cross pieces, and described Y3 axis rule are arranged on column; Y3 axis rail coordinates with No. two hydraulic steering gear adopting cross pieces, realize No. two hydraulic steering gear adopting cross pieces to move back and forth in Y direction, and greatly improve No. two hydraulic steering gear adopting cross pieces kinematic accuracy in the Y-axis direction, the high speed that can realize lathe Y-axis moves back and forth, and easy for installation, more easily reach and run up.
Described X3 axle group also comprises the sliding pair that X3 axis rule and No. two hydraulic steering gear adopting cross pieces are formed away from the side of column, and described X3 axis is advised and is arranged on the second Cutting tool installation manner plate; X3 axis rail coordinates with No. two hydraulic steering gear adopting cross pieces, realize the second Cutting tool installation manner plate to move back and forth in X-direction, and greatly improve the second Cutting tool installation manner plate kinematic accuracy in the X-axis direction, the high speed that can realize lathe X-axis moves back and forth, and easy for installation, more easily reach and run up.
As a further improvement on the present invention, a described hydraulic steering gear adopting cross piece is made up of with the first right angle block being connected X1 axle slide block and Y1 axle slide block X1 axle slide block, Y1 axle slide block, and No. two described hydraulic steering gear adopting cross pieces are made up of with the second right angle block being connected X3 axle slide block and Y3 axle slide block X3 axle slide block, Y3 axle slide block; A hydraulic steering gear adopting cross piece and No. two hydraulic steering gear adopting cross pieces include three parts, and it is comparatively simple that each part manufactures separately the crosshead shoe comparing one, and cost also significantly reduces.
Described Z1 axle group also comprises the sliding pair that Z1 axis rule are formed with Z1 axle slide block, and described Z1 axis rule are arranged on lathe bed, and described Z1 axle slide block is arranged on the bottom of Z1 axle slide plate; Z1 axis rail coordinates with Z1 axle slide block, realizes Z1 axle slide plate and moves back and forth in Z-direction, and greatly improves Z1 axle slide plate kinematic accuracy in the Z-axis direction, and the high speed that can realize machine Z-axis moves back and forth, and easy for installation, more easily reaches and runs up.
Described Y1 axle group also comprises the sliding pair that Y1 axis rule are formed with Y1 axle slide block, and described Y1 axis rule are arranged on column; Y1 axis rail coordinates with Y1 axle slide block, realizes a hydraulic steering gear adopting cross piece and moves back and forth in Y direction, and greatly improves hydraulic steering gear adopting cross piece kinematic accuracy in the Y-axis direction, and the high speed that can realize lathe Y-axis moves back and forth, and easy for installation, more easily reaches and runs up.
Described X1 axle group also comprises the sliding pair that X1 axis rule are formed with X1 axle slide block, and described X1 axis rule are arranged on the first Cutting tool installation manner plate; X1 axis rail coordinates with X1 axle slide block, realize the first Cutting tool installation manner plate to move back and forth in X-direction, and greatly improve the first Cutting tool installation manner plate kinematic accuracy in the X-axis direction, the high speed that can realize lathe X-axis moves back and forth, and easy for installation, more easily reach and run up.
Described Y3 axle group also comprises the sliding pair that Y3 axis rule are formed with Y3 axle slide block, and described Y3 axis rule are arranged on column; Y3 axis rail coordinates with Y3 axle slide block, realizes No. two hydraulic steering gear adopting cross pieces and moves back and forth in Y direction, and greatly improves No. two hydraulic steering gear adopting cross pieces kinematic accuracy in the Y-axis direction, and the high speed that can realize lathe Y-axis moves back and forth, and easy for installation, more easily reaches and runs up.
Described X3 axle group also comprises the sliding pair that X3 axis rule are formed with X3 axle slide block, and described X3 axis rule are arranged on the second Cutting tool installation manner plate.X3 axis rail coordinates with X3 axle slide block, realize the second Cutting tool installation manner plate to move back and forth in X-direction, and greatly improve the second Cutting tool installation manner plate kinematic accuracy in the X-axis direction, the high speed that can realize lathe X-axis moves back and forth, and easy for installation, more easily reach and run up.
As a further improvement on the present invention, described Z1 axle group also comprises Z1 axle shaft coupling and Z1 axle servo motor seat, Z1 axle servo motor seat is fixed on lathe bed, for installing Z1 axle servomotor, it is built with Z1 axle bearing, one end of Z1 axial filament bar through Z1 axle bearing, and is connected with the power transmission shaft of Z1 axle servomotor by Z1 axle shaft coupling;
Described Y1 axle group also comprises Y1 axle shaft coupling and is arranged on column top for installing the Y1 axle servo motor seat of Y1 axle servomotor, described Y1 axle servo motor seat is built with Y1 axle bearing, one end of Y1 axial filament bar through Y1 axle bearing, and is connected with the power transmission shaft of Y1 axle servomotor by Y1 axle shaft coupling;
Described X1 axle group also comprises X1 axle shaft coupling and is arranged on a hydraulic steering gear adopting cross piece side for installing the X1 axle servo motor seat of X1 axle servomotor, described X1 axle servo motor seat is built with X1 axle bearing, and one end of X1 axial filament bar is also connected with the power transmission shaft of X1 axle servomotor by X1 axle shaft coupling through X1 axle bearing;
Described Y3 axle group also comprises Y3 axle shaft coupling and is arranged on column top for installing the Y3 axle servo motor seat of Y3 axle servomotor, described Y3 axle servo motor seat is built with Y3 axle bearing, one end of Y3 axial filament bar through Y3 axle bearing, and is connected with the power transmission shaft of Y3 axle servomotor by Y3 axle shaft coupling;
Described X3 axle group also comprises X3 axle shaft coupling and is arranged on No. two hydraulic steering gear adopting cross piece sides for installing the X3 axle servo motor seat of X3 axle servomotor, described X3 axle servo motor seat is built with X3 axle bearing, and one end of X3 axial filament bar is also connected with the power transmission shaft of X3 axle servomotor by X3 axle shaft coupling through X3 axle bearing.Servomotor in each axle group is all fixed by motor cabinet, bearing in each axle group is installed and is act as support screw on the one hand, screw mandrel is made to realize rotating on the other hand, screw mandrel drives bearing inner race to rotate, the rolling friction utilizing the ball of bearing to bring replaces screw mandrel to be directly contained in the sliding friction formed in motor cabinet, avoid the resistance that sliding friction brings, reduce caloric value, ensure screw mandrel high-precision rotary.The use of shaft coupling, avoids the problem that the Concentricity tolerance that causes due to part's machining errors when motor shaft is connected with screw mandrel is large cleverly, by the connection of shaft coupling, makes screw mandrel high-precision rotary synchronous with machine shaft, improve lathe self precision.
As a further improvement on the present invention, described Z1 axle group also comprises the Z1 spindle nut matched with Z1 axial filament bar, described Z1 spindle nut is arranged on the bottom of Z1 axle slide plate, and Z1 axial filament bar is through Z1 spindle nut, and Z1 axle slide plate is realized and being threaded of Z1 axial filament bar by Z1 spindle nut; When Z1 axle servomotor starts, drive Z1 axle screw rod transmission, realize the motion of Z1 axle slide plate in Z-direction.
Described Y1 axle group also comprises the Y1 spindle nut matched with Y1 axial filament bar, and described Y1 spindle nut is arranged on the first slide, and Y1 axial filament bar is through Y1 spindle nut, and the first described slide is realized and being threaded of Y1 axial filament bar by Y1 spindle nut; When Y1 axle servomotor starts, drive Y1 axle screw rod transmission, realize the motion of a hydraulic steering gear adopting cross piece in Y direction.
Described X1 axle group also comprises the X1 spindle nut matched with X1 axial filament bar, described X1 spindle nut is arranged on the first Cutting tool installation manner plate, X1 axial filament bar is through X1 spindle nut, and the first described Cutting tool installation manner plate is realized and being threaded of X1 axial filament bar by X1 spindle nut; When X1 axle servomotor starts, drive X1 axle screw rod transmission, realize the motion of the first Cutting tool installation manner plate in X-direction.
Described Y3 axle group also comprises the Y3 spindle nut matched with Y3 axial filament bar, and described Y3 spindle nut is arranged on the second slide, and Y3 axial filament bar is through Y3 spindle nut, and the second described slide is realized and being threaded of Y3 axial filament bar by Y3 spindle nut; When Y3 axle servomotor starts, drive Y3 axle screw rod transmission, realize the motion of No. two hydraulic steering gear adopting cross pieces in Y direction.
Described X3 axle group also comprises the X3 spindle nut matched with X3 axial filament bar, described X3 spindle nut is arranged on the second Cutting tool installation manner plate, X3 axial filament bar is through X3 spindle nut, and the second described Cutting tool installation manner plate is realized and being threaded of X3 axial filament bar by X3 spindle nut.When X3 axle servomotor starts, drive X3 axle screw rod transmission, realize the motion of the second Cutting tool installation manner plate in X-direction.
As a further improvement on the present invention, described Z1 axle group also comprises the Z1 axle bed be arranged on lathe bed, and described Z1 axial filament bar is rotationally connected away from one end of Z1 axle servomotor and Z1 axle bed.Because the length of the Z1 axial filament bar of Z-direction is longer, required precision is high, and screw mandrel one end is connected with servomotor, supported by motor cabinet, the other end arranges axle bed, and all there is support at the two ends of screw mandrel, ensure the depth of parallelism of screw mandrel center line and line rail, thus ensure the kinematic accuracy of lathe.
As a further improvement on the present invention, arrange bearing in described Z1 axle bed, described Z1 axial filament bar is arranged in bearing inner race away from one end of Z1 axle servomotor.Screw mandrel drives bearing inner race to rotate, and the rolling friction utilizing the ball of bearing to bring replaces screw mandrel to be directly contained in the sliding friction formed in axle bed, avoids the resistance that sliding friction brings, and reduces caloric value, ensures screw mandrel high-precision rotary.
Further improve as of the present invention, described Z1 axial filament bar, Y1 axial filament bar, X1 axial filament bar, Y3 axial filament bar and X3 axial filament bar are ball screw.Ball screw compares the slip of plain nut pair, reduces friction, and energy loss is little, mechanical efficiency can reach more than 92%, also removes the axial gap between plain nut pair on the other hand, because the frictional force of screw mandrel is little, the wearing and tearing of screw mandrel are also few, and the life-span of screw mandrel is also higher.
In sum, the invention has the beneficial effects as follows: solve in prior art and walk core type turn-milling machine tool and fix a cutting tool and be all arranged on same part, so when often cutter being worked all must etc. last cutter is completed processing after just can process, cutter mutually limits to and causes the Workpiece shaping time well not optimized, affect the technological deficiency of the shaping efficiency of workpiece, and the present invention also to have transmission accuracy high, the simple advantage of structure, the present invention adopts crosshead shoe, compared to existing technology, save one slide-plate, not only reduce the volume of lathe, and it is easy for installation.
Accompanying drawing explanation
Fig. 1 is structural representation of the present invention.
Fig. 2 is perspective exploded view of the present invention.
Fig. 3 is the exploded view of X1 axle group, Y1 axle group, X3 axle group and Y3 axle group in reflection the present invention.
Fig. 4 is that reaction the present invention and countershaft assembly form the structural representation that six axles walk core type turn-milling machine tool.
Fig. 5 is that reaction the present invention and countershaft assembly form the structural representation one that seven axles walk core type turn-milling machine tool.
Fig. 6 is that reaction the present invention and countershaft assembly form the structural representation two that seven axles walk core type turn-milling machine tool.
Fig. 7 is that reaction the present invention and countershaft assembly form the structural representation one that eight axles walk core type turn-milling machine tool.
Fig. 8 is that reaction the present invention and countershaft assembly form the structural representation two that eight axles walk core type turn-milling machine tool.
Fig. 9 is that reaction the present invention and countershaft assembly form the structural representation one that nine axles walk core type turn-milling machine tool.
Figure 10 is that reaction the present invention and countershaft assembly form the structural representation two that nine axles walk core type turn-milling machine tool.
Detailed description of the invention
Below in conjunction with accompanying drawing, the specific embodiment of the present invention is described further.
Embodiment one:
What positive axis as shown in Figure 1, Figure 2 and Figure 3 had five axle construction walks core type turn-milling machine tool, comprises lathe bed 1, be arranged on the column 2 on lathe bed 1, column 2 can be bolted on lathe bed 1, also can cast lathe bed time and lathe bed 1 integrally casting shaping, described column 2 has the through hole along Z-direction, be arranged on the Z1 axle group on lathe bed 1, X1 axle group, Y1 axle group, X3 axle group and Y3 axle group, described Z1 axle group comprises Z1 axle servomotor 3, Z1 axial filament bar 4, the positive main shaft 5 of lathe, Z1 axle shaft coupling 31 and being arranged on lathe bed 1 for installing the Z1 axle servo motor seat 32 of Z1 axle servomotor 3, described Z1 axle servomotor 3 drives the positive main shaft 5 of lathe to reciprocatingly slide along Z-direction on lathe bed 1 by Z1 axial filament bar 4, the bottom of the positive main shaft 5 of described lathe arranges Z1 axle slide plate 30, Z1 axle slide plate 30 can be cast separately, positive main shaft 5 is fixed with bolt or is welded and fixed with lathe again, also can integrated spindle axis casting positive with lathe, described Z1 axle slide plate 30 is slidably mounted on lathe bed 1, concrete slip is lathe bed 1 is arranged Z1 axis rail, the bottom of Z1 axle slide plate 30 arranges the Z1 axle slide block matched with Z1 axis rail, the bottom of Z1 axle slide plate 30 arranges Z1 spindle nut, described Z1 axial filament bar 4 is through Z1 spindle nut, the axial line of the positive main shaft 5 of described lathe overlaps with the center line of through hole on column 2, described Z1 axle servo motor seat 32 is built with Z1 axle bearing, and one end of Z1 axial filament bar 4 is also connected with the power transmission shaft of Z1 axle servomotor 3 by Z1 axle shaft coupling 31 through Z1 axle bearing.Start Z1 axle servomotor 3, the power transmission shaft of Z1 axle servomotor 3 drives Z1 axial filament bar 4 to rotate, thus drive Z1 axle slide plate 30 to slide in the Z-axis direction, because the positive main shaft 5 of lathe is arranged on Z1 axle slide plate 30, therefore the positive main shaft 5 of lathe slides together in the Z-axis direction along with Z1 axle slide plate 30.
The first Cutting tool installation manner plate 7 on column 2 is slidably connected at by four hydraulic steering gear adopting cross pieces 6, the first described Cutting tool installation manner plate 7 to be driven by X1 axial filament bar 9 by X1 axle servomotor 8 and reciprocatingly slides along X-direction on column 2, to be driven by Y1 axial filament bar 11 by Y1 axle servomotor 10 and reciprocatingly slide along Y direction on column 2, on described column 2 along Y direction parallel two Y1 axis rails 17 are set, on first Cutting tool installation manner plate 7 along X-direction parallel two X1 axis rails 18 are set, two described Y1 axis rails 17 and two X1 axis rails 18 one-tenth " well " fonts are arranged, four described hydraulic steering gear adopting cross pieces 6 are arranged on the intersection of Y1 axis rail 17 and X1 axis rail 18, the both sides of a described hydraulic steering gear adopting cross piece 6 form sliding pair with Y1 axis rail 17 and X1 axis rail 18 respectively, adjacent two No. one hydraulic steering gear adopting cross piece 6 top, described left and right is provided with the first slide 19, the first described slide 19 arranges Y1 spindle nut, Y1 spindle nut is threaded with Y1 axial filament bar 9, the first described Cutting tool installation manner plate 7 is provided with X1 spindle nut, described X1 spindle nut is threaded with X1 axial filament bar 11, described Y1 axle group also comprises Y1 axle shaft coupling 23 and is arranged on column 2 top for installing the Y1 axle servo motor seat 24 of Y1 axle servomotor 8, described Y1 axle servo motor seat 24 is built with Y1 axle bearing, and one end of Y1 axial filament bar 9 is also connected with the power transmission shaft of Y1 axle servomotor 8 by Y1 axle shaft coupling 23 through Y1 axle bearing, described X1 axle group also comprises X1 axle shaft coupling 27 and is arranged on the first hydraulic steering gear adopting cross piece 6 for installing the X1 axle servo motor seat 28 of X1 axle servomotor 10, described X1 axle servo motor seat 28 is built with X1 axle bearing, and one end of X1 axial filament bar 11 is also connected with the power transmission shaft of X1 axle servomotor 10 by X1 axle shaft coupling 27 through X1 axle bearing, start Y1 axle servomotor 8, the power transmission shaft of Y1 axle servomotor 8 drives Y1 axial filament bar 9 to rotate, the first Cutting tool installation manner plate 7 is driven to slide together with Y direction with a hydraulic steering gear adopting cross piece 6, start X1 axle servomotor 10, the power transmission shaft of X1 axle servomotor 10 drives X1 axial filament bar 11 to rotate, thus realize the first Cutting tool installation manner plate 7 and slide in the X-axis direction, first Cutting tool installation manner plate 7 slides in Y direction and X-direction, drives the cutter be arranged on the first Cutting tool installation manner plate 7 to slide in Y direction and X-direction.
The second Cutting tool installation manner plate 13 on column 2 is slidably connected at by four No. two hydraulic steering gear adopting cross pieces 12, the second described Cutting tool installation manner plate 13 to be driven by Y3 axial filament bar 15 by Y3 axle servomotor 14 and reciprocatingly slides along Y direction on column 2, to be driven reciprocatingly slide along X-direction on column 2 by X3 axle servomotor 16 by X3 axial filament bar 17, on described column 2 along Y direction parallel two Y3 axis rails 20 are set, on second Cutting tool installation manner plate 13 along X-direction parallel two X3 axis rails 21 are set, two described Y3 axis rails 20 and two X3 axis rails 21 one-tenth " well " fonts are arranged, four described No. two hydraulic steering gear adopting cross pieces 12 are arranged on Y3 axis rail 20 and X3 axis rail 21 intersection, the both sides of No. two described hydraulic steering gear adopting cross pieces 12 form sliding pair with Y3 axis rail 20 and X3 axis rail 21 respectively, two No. two hydraulic steering gear adopting cross pieces 12 that described left and right is adjacent are provided with the second slide 22, the second described slide 22 arranges Y3 spindle nut, described Y3 spindle nut is threaded with Y3 axial filament bar 15, the second described Cutting tool installation manner plate 13 arranges X3 spindle nut, described X3 spindle nut is threaded with X3 axial filament bar 17, described Y3 axle group also comprises Y3 axle shaft coupling 25 and is arranged on column 2 top for installing the Y3 axle servo motor seat 26 of Y3 axle servomotor 14, described Y3 axle servo motor seat 26 is built with Y3 axle bearing, one end of Y3 axial filament bar 15 is also connected with the power transmission shaft of Y3 axle servomotor 14 by Y3 axle shaft coupling 25 through Y3 axle bearing, described X3 axle group also comprises X3 axle shaft coupling 28 and is arranged on the second hydraulic steering gear adopting cross piece 12 for installing the X3 axle servo motor seat 29 of X3 axle servomotor 16, described X3 axle servo motor seat 29 is built with X3 axle bearing, and one end of X3 axial filament bar 17 is also connected with the power transmission shaft of X3 axle servomotor 16 by X3 axle shaft coupling 28 through X3 axle bearing, start Y3 axle servomotor 14, the power transmission shaft of Y3 axle servomotor 14 drives Y3 axial filament bar 15 to rotate, the second Cutting tool installation manner plate 13 is driven to slide together with Y direction with No. two hydraulic steering gear adopting cross pieces 12, start X3 axle servomotor 16, the power transmission shaft of X3 axle servomotor 16 drives X3 axial filament bar 15 to rotate, thus realize the second Cutting tool installation manner plate 13 and slide in the X-axis direction, second Cutting tool installation manner plate 13 slides in Y direction and X-direction, drives the cutter be arranged on the second Cutting tool installation manner plate 13 to slide in Y direction and X-direction.
Because the first Cutting tool installation manner plate 7 and the second Cutting tool installation manner plate 13 are respectively by different driven by servomotor, therefore both slide is relatively independent, do not interfere with each other, when the cutter on the first Cutting tool installation manner plate 7 adds man-hour to workpiece, the cutter do not affected on the second Cutting tool installation manner plate 13 is processed workpiece, improves the efficiency of work pieces process.In order to further reduce friction in the present embodiment, improve the service life of Z1 axial filament bar 4, Y1 axial filament bar 9, X1 axial filament bar 11, Y3 axial filament bar 15 and X3 axial filament bar 17, Z1 axial filament bar 4, Y1 axial filament bar 9, X1 axial filament bar 11, Y3 axial filament bar 15 and X3 axial filament bar 17 all adopt ball screw.
Embodiment two:
The present embodiment is similar to embodiment one, difference is only that a hydraulic steering gear adopting cross piece 6 is made up of with the first right angle block being connected X1 axle slide block and Y1 axle slide block X1 axle slide block, Y1 axle slide block, described column 2 is arranged Y1 axis rail 17, first Cutting tool installation manner plate 7 is arranged X1 axis rail 18, described Y1 axle slide block and X1 axle slide block form sliding pair with Y1 axis rail 17 and X1 axis rail 18 respectively; Second hydraulic steering gear adopting cross piece 12 is made up of with the second right angle block being connected Y3 axle slide block and X3 axle slide block Y3 axle slide block, X3 axle slide block, described column 2 is arranged Y3 axis rail 20, second Cutting tool installation manner plate 13 is arranged X3 axis rail 21, described Y3 axle slide block and X3 axle slide block form sliding pair with Y3 axis rail 20 and X3 axis rail 21 respectively, in the present invention, Y1 axle slide block, X1 axle slide block and the first right angle block are bolted, also can weld, Y3 axle slide block, X3 axle slide block and the second right angle block are bolted, and also can be welded and fixed.Other structure is identical with embodiment one, specifically can comparative example one, does not do too much description herein.
The present invention's (comprising embodiment one and embodiment two) is combined the turn-milling machine tool that can form six axle construction with the countershaft assembly be made up of Z2 axle group, as shown in Figure 4; The present invention is combined the turnning and milling mechanism that can form seven axle construction with the countershaft assembly be made up of Z2 axle group, X2 axle group, in the turnning and milling mechanism of this seven axle construction, the installation site of Z2 axle group and X2 axle group can be exchanged, Z2 axle group can be slidably mounted on X2 axle group on lathe bed is slidably mounted on Z2 shaft assembly, also X2 axle group can be slidably mounted on lathe bed is slidably mounted in X2 axle group by Z2 axle group, as shown in Figure 5 and Figure 6; The present invention is combined the turnning and milling mechanism that can form eight axle construction with the countershaft assembly be made up of Z2 axle group, X2 axle group and Y2 axle group, and in the turnning and milling mechanism of this eight axle construction, the installation site of Z2 axle group and X2 axle can be exchanged equally, as shown in Figure 7 and Figure 8; The present invention is combined with the countershaft assembly be made up of Z2 axle group, X2 axle group, Y2 axle group and Y4 axle group, the turn-milling machine tool of nine axle construction can be formed, wherein Y2 axle group and the position of Y4 axle group on lathe bed about the axial line of the positive main shaft of lathe symmetrical and in the turn-milling machine tool of this nine axle construction the installation site of Z2 axle group and X2 axle group also can exchange, as shown in Figure 9 and Figure 10.
Do not do the part illustrated in every description of the present invention and be prior art, or just can be realized by prior art, and should be understood that, for those of ordinary skills, can be improved according to the above description, the line rail such as saying in the present invention is transformed on hard rail or slide plate drives dovetail groove etc., the conversion that basis of the present invention is done, as having level and vertical set-up mode to be transformed to the set-up mode etc. of inclination on center line rail of the present invention, various cutters in device are obliquely installed or are horizontally disposed with, each wire gauge is exchanged with the installation site of corresponding slide block, lathe bed is arranged on slide plate chair or lathe bed with bolt and casts slide plate chair, Z1 axle slide plate slides is arranged on the corresponding first-class improvement of slide plate chair, all should belong to the protection domain of claims of the present invention.
Claims (9)
1. what positive axis had five axle construction walks a core type turn-milling machine tool, it is characterized in that: comprise
Lathe bed (1);
Be arranged on the column (2) on lathe bed (1), described column (2) have the through hole along Z-direction;
Be arranged on the Z1 axle group on lathe bed (1), described Z1 axle group comprises Z1 axle servomotor (3), Z1 axial filament bar (4) and the positive main shaft of lathe (5), and described Z1 axle servomotor (3) drives the positive main shaft of lathe (5) to reciprocatingly slide along Z-direction on lathe bed (1) by Z1 axial filament bar (4);
Y1 axle group, described Y1 axle group comprises the hydraulic steering gear adopting cross piece (6) be slidably arranged on column (2), Y1 axle servomotor (8), is arranged on the first slide (19) on a hydraulic steering gear adopting cross piece (6) and Y1 axial filament bar (9), described Y1 axial filament bar (9) is threaded with the first slide (19) and passes the first slide (19), and one end of Y1 axial filament bar (9) is connected with the power transmission shaft of Y1 axle servomotor (8);
X1 axle group, described X1 axle group comprises the first Cutting tool installation manner plate (7), X1 axle servomotor (10) and the X1 axial filament bar (11) that are slidably arranged on a hydraulic steering gear adopting cross piece (6), described X1 axial filament bar (11) is threaded with the first Cutting tool installation manner plate (7) and passes the first Cutting tool installation manner plate (7), and one end of X1 axial filament bar (11) is connected with the power transmission shaft of X1 axle servomotor (10);
Y3 axle group, described Y3 axle group comprises No. two hydraulic steering gear adopting cross pieces (12) be slidably arranged on column (2), Y3 axle servomotor (14), is arranged on the second slide (22) on No. two hydraulic steering gear adopting cross pieces (12) and Y3 axial filament bar (15), described Y3 axial filament bar (15) is threaded with the second slide (22) and passes the second slide (22), and one end of Y3 axial filament bar (15) is connected with the power transmission shaft of Y3 axle servomotor (14);
X3 axle group, described X3 axle group comprises the second Cutting tool installation manner plate (13), X3 axle servomotor (16) and the X3 axial filament bar (17) that are slidably arranged on No. two hydraulic steering gear adopting cross pieces (12), described X3 axial filament bar (17) is threaded with the second Cutting tool installation manner plate (13) and passes the second Cutting tool installation manner plate (13), and one end of X3 axial filament bar (17) is connected with the power transmission shaft of X3 axle servomotor (16).
2. what positive axis according to claim 1 had five axle construction walks core type turn-milling machine tool, it is characterized in that: the bottom of the positive main shaft of described lathe (5) arranges Z1 axle slide plate (30), described Z1 axle slide plate (30) is slidably arranged on lathe bed (1), described Z1 axial filament bar (4) is threaded with Z1 axle slide plate (30) and passes Z1 axle slide plate (30), and one end of Z1 axial filament bar (4) is connected with the power transmission shaft of Z1 axle servomotor (3).
3. what positive axis according to claim 2 had five axle construction walks core type turn-milling machine tool, it is characterized in that: a described hydraulic steering gear adopting cross piece (6) and No. two hydraulic steering gear adopting cross pieces (12) are all structure as a whole;
Described Z1 axle group also comprises the sliding pair that Z1 axis rule (33) is formed with Z1 axle slide block (34), described Z1 axis rule (33) is arranged on lathe bed, and described Z1 axle slide block (34) is arranged on the bottom of Z1 axle slide plate (30);
Described Y1 axle group also comprises the sliding pair that Y1 axis rule (35) is formed near the side of column (2) with a hydraulic steering gear adopting cross piece (6), and described Y1 axis rule (35) is arranged on column (2);
Described X1 axle group also comprises the sliding pair that X1 axis rule (18) and hydraulic steering gear adopting cross piece (6) are formed away from the side of column (2), and described X1 axis is advised and is arranged on the first Cutting tool installation manner plate (7);
Described Y3 axle group also comprises the sliding pair that Y3 axis rule (20) is formed near the side of column (2) with No. two hydraulic steering gear adopting cross pieces (12), and described Y3 axis rule (17) is arranged on column (2);
Described X3 axle group also comprises the sliding pair that X3 axis rule (21) and No. two hydraulic steering gear adopting cross pieces (12) are formed away from the side of column (2), and described X3 axis is advised (21) and is arranged on the second Cutting tool installation manner plate (13).
4. what positive axis according to claim 2 had five axle construction walks core type turn-milling machine tool, it is characterized in that: a described hydraulic steering gear adopting cross piece (6) is made up of with the first right angle block being connected Y1 axle slide block and X1 axle slide block Y1 axle slide block, X1 axle slide block, No. two described hydraulic steering gear adopting cross pieces (12) are made up of with the second right angle block being connected Y3 axle slide block and X3 axle slide block Y3 axle slide block, X3 axle slide block;
Described Z1 axle group also comprises the sliding pair that Z1 axis rule are formed with Z1 axle slide block, and described Z1 axis rule are arranged on lathe bed, and described Z1 axle slide block is arranged on the bottom of Z1 axle slide plate;
Described Y1 axle group also comprises the sliding pair that Y1 axis rule (35) is formed with Y1 axle slide block, and described Y1 axis rule are arranged on column (2);
Described X1 axle group also comprises the sliding pair that X1 axis rule (18) is formed with X1 axle slide block, and described X1 axis rule are arranged on the first Cutting tool installation manner plate (7);
Described Y3 axle group also comprises the sliding pair that Y3 axis rule (20) is formed with Y3 axle slide block, and described Y3 axis rule (20) is arranged on column (2);
Described X3 axle group also comprises the sliding pair that X3 axis rule (21) is formed with X3 axle slide block, and described X3 axis rule (21) is arranged on the second Cutting tool installation manner plate (13).
5. what the positive axis according to Claims 2 or 3 or 4 had five axle construction walks core type turn-milling machine tool, it is characterized in that:
Described Z1 axle group also comprises Z1 axle shaft coupling (31) and Z1 axle servo motor seat (32), Z1 axle servo motor seat (32) is fixed on lathe bed (1), for installing Z1 axle servomotor (3), it is built with Z1 axle bearing, one end of Z1 axial filament bar (4) through Z1 axle bearing, and is connected with the power transmission shaft of Z1 axle servomotor (3) by Z1 axle shaft coupling (31);
Described Y1 axle group also comprises Y1 axle shaft coupling (23) and is arranged on column (2) top for installing the Y1 axle servo motor seat (24) of Y1 axle servomotor (8), described Y1 axle servo motor seat (24) is built with Y1 axle bearing, one end of Y1 axial filament bar (9) through Y1 axle bearing, and is connected with the power transmission shaft of Y1 axle servomotor (8) by Y1 axle shaft coupling (23);
Described X1 axle group also comprises X1 axle shaft coupling (27) and is arranged on hydraulic steering gear adopting cross piece (6) side for installing the X1 axle servo motor seat (28) of X1 axle servomotor (10), described X1 axle servo motor seat (28) is built with X1 axle bearing, and one end of X1 axial filament bar (11) is also connected with the power transmission shaft of X1 axle servomotor (10) by X1 axle shaft coupling (27) through X1 axle bearing;
Described Y3 axle group also comprises Y3 axle shaft coupling (25) and is arranged on column (2) top for installing the Y3 axle servo motor seat (26) of Y3 axle servomotor (14), described Y3 axle servo motor seat (26) is built with Y3 axle bearing, one end of Y3 axial filament bar (15) through Y3 axle bearing, and is connected with the power transmission shaft of Y3 axle servomotor (14) by Y3 axle shaft coupling (25);
Described X3 axle group also comprises X3 axle shaft coupling (28) and is arranged on No. two hydraulic steering gear adopting cross piece (12) sides for installing the X3 axle servo motor seat (29) of X3 axle servomotor (16), described X3 axle servo motor seat (29) is built with X3 axle bearing, and one end of X3 axial filament bar (17) is also connected with the power transmission shaft of X3 axle servomotor (16) by X3 axle shaft coupling (28) through X3 axle bearing.
6. what the positive axis according to Claims 2 or 3 or 4 had five axle construction walks core type turn-milling machine tool, it is characterized in that:
Described Z1 axle group also comprises the Z1 spindle nut matched with Z1 axial filament bar (4), described Z1 spindle nut is arranged on the bottom of Z1 axle slide plate, Z1 axial filament bar (4) is through Z1 spindle nut, and Z1 axle slide plate is realized and being threaded of Z1 axial filament bar (4) by Z1 spindle nut;
Described Y1 axle group also comprises the Y1 spindle nut matched with Y1 axial filament bar (9), described Y1 spindle nut is arranged on the first slide (19), Y1 axial filament bar (9) is through Y1 spindle nut, and described the first slide (19) is realized and being threaded of Y1 axial filament bar (9) by Y1 spindle nut;
Described X1 axle group also comprises the X1 spindle nut matched with X1 axial filament bar (11), described X1 spindle nut is arranged on the first Cutting tool installation manner plate (7), X1 axial filament bar (11) is through X1 spindle nut, and the first described Cutting tool installation manner plate (7) is realized and being threaded of X1 axial filament bar (11) by X1 spindle nut;
Described Y3 axle group also comprises the Y3 spindle nut matched with Y3 axial filament bar (15), described Y3 spindle nut is arranged on the second slide (22), Y3 axial filament bar (15) is through Y3 spindle nut, and described the second slide (22) is realized and being threaded of Y3 axial filament bar (15) by Y3 spindle nut;
Described X3 axle group also comprises the X3 spindle nut matched with X3 axial filament bar (17), described X3 spindle nut is arranged on the second Cutting tool installation manner plate (13), X3 axial filament bar (17) is through X3 spindle nut, and the second described Cutting tool installation manner plate (13) is realized and being threaded of X3 axial filament bar (17) by X3 spindle nut.
7. what the positive axis according to Claims 2 or 3 or 4 had five axle construction walks core type turn-milling machine tool, it is characterized in that: described Z1 axle group also comprises the Z1 axle bed be arranged on lathe bed, described Z1 axial filament bar (4) is rotationally connected away from one end of Z1 axle servomotor (3) and Z1 axle bed.
8. what positive axis according to claim 7 had five axle construction walks core type turn-milling machine tool, it is characterized in that: arrange bearing in described Z1 axle bed, described Z1 axial filament bar (4) is arranged in bearing inner race away from one end of Z1 axle servomotor (3).
9. what the positive axis according to claim 1 or 2 or 3 or 4 had five axle construction walks core type turn-milling machine tool, it is characterized in that: described Z1 axial filament bar (4), Y1 axial filament bar (9), X1 axial filament bar (11), Y3 axial filament bar (15) and X3 axial filament bar (17) are ball screw.
Priority Applications (2)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201510036881.7A CN104551719A (en) | 2015-01-23 | 2015-01-23 | Decentring type turn-milling machine tool provided with positive axis with five-axis structure |
| CN201510251499.8A CN104858720A (en) | 2015-01-23 | 2015-05-18 | Main shaft box movement type turn milling machine tool with five-axis structure on positive axis |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201510036881.7A CN104551719A (en) | 2015-01-23 | 2015-01-23 | Decentring type turn-milling machine tool provided with positive axis with five-axis structure |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| CN104551719A true CN104551719A (en) | 2015-04-29 |
Family
ID=53069349
Family Applications (2)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN201510036881.7A Pending CN104551719A (en) | 2015-01-23 | 2015-01-23 | Decentring type turn-milling machine tool provided with positive axis with five-axis structure |
| CN201510251499.8A Pending CN104858720A (en) | 2015-01-23 | 2015-05-18 | Main shaft box movement type turn milling machine tool with five-axis structure on positive axis |
Family Applications After (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN201510251499.8A Pending CN104858720A (en) | 2015-01-23 | 2015-05-18 | Main shaft box movement type turn milling machine tool with five-axis structure on positive axis |
Country Status (1)
| Country | Link |
|---|---|
| CN (2) | CN104551719A (en) |
Cited By (5)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN111085862A (en) * | 2019-12-26 | 2020-05-01 | 亿缙机械(嘉兴)有限公司 | Walk compound all-in-one of heart formula numerical control turnning and milling |
| CN111151774A (en) * | 2019-12-31 | 2020-05-15 | 津上精密机床（浙江）有限公司 | Centering method for main shaft and auxiliary shaft of centering machine |
| CN111941152A (en) * | 2020-08-28 | 2020-11-17 | 中山市捷上同程数控机床有限公司 | An eight-axis moving machine |
| CN114273578A (en) * | 2021-12-24 | 2022-04-05 | 事必得精密机械(苏州)有限公司 | An efficient and environmentally friendly process for machining forgings without guide sleeves |
| CN119927334A (en) * | 2025-04-10 | 2025-05-06 | 大连艾赛机械设备有限公司 | A high-strength bolt tapping device |
Families Citing this family (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN107614196A (en) * | 2015-12-30 | 2018-01-19 | 深圳市配天智造装备股份有限公司 | A kind of more spindle processing equipment |
| EP3856456B1 (en) * | 2018-09-28 | 2022-08-31 | Mikron Switzerland AG | Machine base for use in a machining system and machining system comprising such a machine base |
| CN113275418B (en) * | 2021-07-23 | 2021-10-12 | 山东交通职业学院 | Machine tool hydraulic clamping device suitable for machining of machine tool plate |
Family Cites Families (5)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| US20010042424A1 (en) * | 1998-09-04 | 2001-11-22 | Sheehan | Reduced vibration lathe |
| CN2865936Y (en) * | 2006-01-09 | 2007-02-07 | 林宇 | Main shaft moving digital control lathe |
| CN202555844U (en) * | 2012-04-17 | 2012-11-28 | 上虞市曹娥电机制造有限公司 | Double-support-plate knife frame mechanism of numerically controlled lathe |
| CN203817861U (en) * | 2014-04-18 | 2014-09-10 | 深圳市今日标准精密机器有限公司 | Centering type numerical control lathe with Y2-axis mechanism |
| CN104029016B (en) * | 2014-06-11 | 2016-06-15 | 南京建克机械有限公司 | One is walked scheming end face and is joined the interchangeable unit head of countershaft and boring tool device |
-
2015
- 2015-01-23 CN CN201510036881.7A patent/CN104551719A/en active Pending
- 2015-05-18 CN CN201510251499.8A patent/CN104858720A/en active Pending
Cited By (6)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN111085862A (en) * | 2019-12-26 | 2020-05-01 | 亿缙机械(嘉兴)有限公司 | Walk compound all-in-one of heart formula numerical control turnning and milling |
| CN111151774A (en) * | 2019-12-31 | 2020-05-15 | 津上精密机床（浙江）有限公司 | Centering method for main shaft and auxiliary shaft of centering machine |
| CN111151774B (en) * | 2019-12-31 | 2021-06-04 | 津上精密机床（浙江）有限公司 | Centering method for main shaft and auxiliary shaft of centering machine |
| CN111941152A (en) * | 2020-08-28 | 2020-11-17 | 中山市捷上同程数控机床有限公司 | An eight-axis moving machine |
| CN114273578A (en) * | 2021-12-24 | 2022-04-05 | 事必得精密机械(苏州)有限公司 | An efficient and environmentally friendly process for machining forgings without guide sleeves |
| CN119927334A (en) * | 2025-04-10 | 2025-05-06 | 大连艾赛机械设备有限公司 | A high-strength bolt tapping device |
Also Published As
| Publication number | Publication date |
|---|---|
| CN104858720A (en) | 2015-08-26 |
Similar Documents
| Publication | Publication Date | Title |
|---|---|---|
| CN104551719A (en) | Decentring type turn-milling machine tool provided with positive axis with five-axis structure | |
| CN102151883A (en) | Multihead synchronous or asynchronous carving (drilling) milling numerical control processing equipment | |
| CN204686447U (en) | What positive axis had four axle construction walks core type turn-milling machine tool | |
| CN104551685A (en) | Heavy cutting decentring type turn-milling machine tool provided with positive axis with five-axis structure | |
| CN104551717A (en) | Five-shaft structural turn milling machine tool | |
| CN104551686A (en) | Six-axis heavy cutting decentring type turn-milling machine tool with positive-axis mechanism matched with third-axis assembly mechanism | |
| CN104551715A (en) | Six-axis center passing type turn-milling machine tool formed by matching between positive axis mechanism and third axis set mechanism | |
| CN204725146U (en) | Core type turn-milling machine tool is walked in the six axle rip cuttings that positive axis mechanism coordinates the 3rd axle group to be formed | |
| CN104551720A (en) | Crosshead shoe third axial group structure matching with numerical-control combined machining machine positive axis | |
| CN204686448U (en) | Walk core type turn-milling machine tool | |
| CN104607959A (en) | Six-axis Swiss-type turn-milling machine tool with cooperation of positive-axis mechanism and third-axis set mechanism | |
| CN204686446U (en) | Numerical-control turn-milling walks crosshead shoe the 3rd Zhou Zu mechanism that scheming coordinates with positive axis mechanism | |
| CN202438710U (en) | Numerical-control deep hole boring machine for machining motor base | |
| CN104589079A (en) | Crosshead shoe third shaft group mechanism of center-moving lathe-milling machine tool | |
| CN104551684A (en) | Third axis group mechanism of combined machining type milling and turning lathe | |
| CN204725246U (en) | Positive axis has the rip cutting of five axle construction to walk core type turn-milling machine tool | |
| CN104607958A (en) | Third shaft set mechanism matched with positive shaft of spindle box mobile type numerical control automatic turning machine | |
| CN204725207U (en) | The 3rd axle group structure in scheming is walked in a kind of numerical control rip cutting | |
| CN104875031A (en) | Third axis group mechanism and quill type turning and milling machine tool constituted by same | |
| CN104625769A (en) | Swiss-type turn-milling machine tool with five-axis constructed straight axis | |
| CN204686441U (en) | Walk crosshead shoe the 3rd Zhou Zu mechanism on core type turn-milling machine tool | |
| CN104816201A (en) | Six-axis Swiss type milling machine tool | |
| CN204686445U (en) | A kind of the 3rd Zhou Zu mechanism for walking on core type turn-milling machine tool | |
| CN114083298A (en) | Five-surface composite movable beam W-axis flexible manufacturing equipment | |
| CN204686440U (en) | With walk the 3rd Zhou Zu mechanism that scheming positive axis coordinates and core type turn-milling machine tool is walked in numerical control |
Legal Events
| Date | Code | Title | Description |
|---|---|---|---|
| C06 | Publication | ||
| PB01 | Publication | ||
| C10 | Entry into substantive examination | ||
| SE01 | Entry into force of request for substantive examination | ||
| C05 | Deemed withdrawal (patent law before 1993) | ||
| WD01 | Invention patent application deemed withdrawn after publication |
Application publication date: 20150429 |