CN202506961U - Three-dimensional laser cutting machine - Google Patents
Three-dimensional laser cutting machine Download PDFInfo
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- CN202506961U CN202506961U CN 201220032587 CN201220032587U CN202506961U CN 202506961 U CN202506961 U CN 202506961U CN 201220032587 CN201220032587 CN 201220032587 CN 201220032587 U CN201220032587 U CN 201220032587U CN 202506961 U CN202506961 U CN 202506961U
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- 238000003698 laser cutting Methods 0.000 title claims abstract description 29
- 238000005520 cutting process Methods 0.000 claims abstract description 60
- 230000007246 mechanism Effects 0.000 claims abstract description 42
- 230000033001 locomotion Effects 0.000 claims description 17
- 230000009471 action Effects 0.000 claims description 7
- 238000007789 sealing Methods 0.000 claims description 3
- 238000004519 manufacturing process Methods 0.000 abstract description 4
- 239000012530 fluid Substances 0.000 description 4
- 238000011160 research Methods 0.000 description 4
- 238000012827 research and development Methods 0.000 description 4
- 230000005540 biological transmission Effects 0.000 description 3
- 238000013461 design Methods 0.000 description 3
- 238000010586 diagram Methods 0.000 description 3
- 238000005516 engineering process Methods 0.000 description 3
- 238000012545 processing Methods 0.000 description 3
- 230000001788 irregular Effects 0.000 description 2
- 230000008859 change Effects 0.000 description 1
- 230000008878 coupling Effects 0.000 description 1
- 238000010168 coupling process Methods 0.000 description 1
- 238000005859 coupling reaction Methods 0.000 description 1
- 239000010720 hydraulic oil Substances 0.000 description 1
- 230000008676 import Effects 0.000 description 1
- 230000001795 light effect Effects 0.000 description 1
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- 230000003287 optical effect Effects 0.000 description 1
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Abstract
The utility model discloses a three-dimensional laser cutting machine and relates to a cutting head driving mechanism. The three-dimensional laser cutting machine comprises a support, a motor alpha, a motor beta, a duplicate gear, a reflector group I and a reflector group II, wherein the support comprises a support plate; a cylinder vertical to a plate body is arranged in the middle of the support plate; the motor alpha and the motor beta are respectively and fixedly connected to the support plate on two sides of the cylinder; the duplicate gear is movably connected to the outer surface of a cylindrical light inlet I and arranged at the lower part of a gear of a housing I, has the same axis as the cylindrical light inlet I, can freely rotate relatively to the housing I, and is axially fixed; the cylindrical light inlet I of the housing I is pivoted inside the cylinder of the support; the gear of the housing I is arranged below the support plate; a light inlet II is pivoted with a light outlet I; and a bevel gear in the duplicate gear is meshed with the bevel gear of a housing II, so as to drive the housing II to rotate around the axis of the light outlet of the housing I, and a cutting head is fixedly connected to a light outlet II of the housing II. The three-dimensional laser cutting machine is small in volume, light in weight, and simple in structure, and the manufacture cost is greatly reduced relatively to the prior art.
Description
Technical field
The utility model relates to three-dimensional five-shaft numerical control laser cutting machine, relates in particular to the cutting head driving mechanism of three-dimensional five-shaft numerical control laser cutting machine.
Background technology
The cut of three-dimensional space curve with its advanced person, flexibly, characteristics such as adaptability is strong, numerous areas such as auto industry abroad, aerospace industry have all been obtained widely and have been used.The cutting of use three-dimensional laser not only can be saved model and tooling device, has also shortened the production preparatory period greatly, has extremely wide application prospect, and the fully external import of three-dimensional laser cutting machine at present.For improving the numerical control laser cutter product line, strengthen the capability of independent innovation of enterprise, the applicant has carried out independent research and innovative design from 2011 to three-dimensional five-shaft numerical control laser cutting machine and laser head driving mechanism.Propose name in 2011.8.16. simultaneously to State Intellectual Property Office and be called " five laser cutting machines of a kind of series-parallel connection; 201110233707.3 ", " a kind of lower-mobility parallel connection five-shaft numerical control laser cutting machine; 201110234063.X " and " a kind of three-dimensional five-shaft numerical control laser cutting machine, 201110234262.0 " three patent applications.The technical scheme of these three patents all is to be that the control to the 5-axis movement of laser head is realized on the basis with the parallel institution, has that structure is lightly nimble, inertia is little, response speed is fast, precision is high, rigidity is big, adaptability is strong and many outstanding advantages such as technical value added height.But along with deepening continuously of research work, we find that above-mentioned is the complication system that the technical scheme on basis belongs to multivariable, the coupling of highly non-linear, multi-parameter with the parallel institution.Though mechanical mechanism is simple, the control of movement locus is very complicated, and the technical transform difficulty is big, and difficulty is made in research and development.
The technical scheme that aspect control, also has " some sensing formulas " and " offset " two kinds of serial mechanisms in the prior art." some sensing formulas " cutting head volume is big, when the cutting deep hole, very easily produces the mechanical interference collision; Its mechanism needs 4 eyeglass reflector lasers, makes energy loss big, and this outer lens expense is high, and adjustment is complicated." offset " rotating mechanism all is to adopt torque motor to drive, and volume is big, weight is big, precision is not high.And cost an arm and a leg.Aforementioned two kinds of serial mechanism technology on top of abroad, domestic do not have.For example the cutting head rotating mechanism price of certain foreign brand name we can say that up to 40-50 ten thousand RMB the research and development of three-dimensional laser cutting machine are exactly empty talk of paper if there is not the cutting head rotating mechanism of independent research.
The utility model content
The utility model provides a kind of movement locus control simpler to above problem, and technical transform is easier, the cheaper three-dimensional laser cutting machine based on serial mechanism of research and development manufacturing cost.Make mechanical mechanism simpler, later programmed control is convenient, handling more superior.
The technical scheme of the utility model is: comprise the cutting head driving mechanism, said cutting head driving mechanism comprises bearing, motor α, motor β, duplicate gear, reflector group one and reflector group two;
Said bearing comprises the seat board with mesopore, and a seat board middle part is provided with the tube perpendicular to plate body, and said motor α and motor β are fixedly connected on respectively on the seat board of said tube both sides;
Said reflector group one comprises eyeglass one, housing one and housing one gear; Said housing one has light-emitting window one and the light inlet one that is tubular; Said housing one gear be located at said tubular light inlet one outer surface and with said tubular light inlet one concentric;
Said reflector group two comprises eyeglass two, housing two and housing two bevel gears; Said housing two has light inlet two and light-emitting window two; Said housing two bevel gears be fixedly connected on said light inlet two the aperture and with said light inlet two concentrics;
Said duplicate gear is movably connected on said tubular light inlet one outer surface, be in said housing one gear the bottom and with said tubular light inlet one concentric, can freely rotate and axial restraint with respect to said housing one; Said duplicate gear comprises that spur gear and bevel gear, said spur gear are positioned at the top of said bevel gear;
The tubular light inlet one of said housing one is articulated in the tube of said bearing; Said housing one gear is in said seat board below;
The motor shaft of said motor α runs through said seat board, through connecting said housing one gear of gears engaged, drives said housing one and rotates around the axle center of the tube of said bearing;
The motor shaft of said motor β runs through said seat board, through connecting the spur gear of the said duplicate gear of gears engaged, drives said duplicate gear rotation;
The light inlet two of said housing two articulates with the light-emitting window of said housing 1 one; Bevel gear in the said duplicate gear and said housing plug tap gears engaged, and then drive said housing two around the rotation of the axle center of said housing one light-emitting window;
Said cutting head is fixedly connected on the light-emitting window two of said housing two.
Be 90 ° of angles between said light inlet one and the light-emitting window one; Be 90 ° of angles between said light inlet two and the said light-emitting window two.
The axle center of the tube of motor α, motor β and said bearing is parallel to each other.
Said driving mechanism also comprises the cutting head follower, makes cutting head axially move with respect to the axis of light-emitting window two on the said housing two; Said cutting head follower comprises holder with mesopore and the tubular drive seat that is movably connected in the holder mesopore; Holder is fixedly connected on the oral area of said light-emitting window two, and said cutting head is fixedly connected on the bottom of said drive seat.
Be provided with hydraulic cylinder cavity in the said holder mesopore; The outer wall middle part of said drive seat has been provided with the step circle of piston action, the hydraulic cylinder cavity sealing in step circle on the described drive seat outer wall and the said holder mesopore; The external cylindrical surface of drive seat and the inner cylinder face of holder cooperatively interact, and make drive seat to do reciprocating linear motion with respect to holder.
Offer deep hole in said holder bottom surface, said deep hole is parallel to the axis of said light-emitting window two; The side of said drive seat bottom is fixedly connected an orientation lever through connecting rod, said orientation lever stretches in the said deep hole, with said deep hole concentric.
The said holder outside is provided with linear motor stator electric; Said drive seat bottom is fixedly connected with linear motor rotor through L shaped connecting rod; Said linear motor rotor is fitted on the said linear motor stator electric.
Said drive seat outer surface offers the axial location groove, and said holder offers the locating hole perpendicular to mesopore, is provided with alignment pin in the said locating hole, and said alignment pin stretches in the said locating slot.
The said holder outside is provided with the screw rod that is driven by band/chain-drive mechanism, and said screw axis is parallel to axially bored line in the said holder; Said drive seat bottom outside is fixedly connected with nut through connecting rod; Said nut connects said screw rod.
Said drive seat outer surface offers the axial location groove, and said holder offers the locating hole perpendicular to mesopore, is provided with alignment pin in the said locating hole, and said alignment pin stretches in the said locating slot.
At present the 5-axis movement based on the three-dimensional laser cutting machine of serial mechanism mainly comprises X, Y, Z axle rectilinear motion, rotating shaft α axle, the motion of β axle.Wherein the rectilinear motion of X, Y, Z axle is basic identical with conventional Two Dimension Laser-Cutting machine; Its core technology is exactly how to design the rotation accurately and fast that light, a dexterous laser head rotating mechanism is realized α axle, β axle, we can say that the key of three-dimensional five-shaft numerical control laser cutting machine research and development is exactly the independent research of laser head rotating mechanism.
The utility model proposes the three-dimensional five-shaft numerical control laser cutting machine that a kind of movement locus control more simply is easy to serial mechanism for this reason, particularly the cutting head rotating mechanism has been carried out innovative design.Main feature is:
The first, utilize the mutual rotation (motion of α axle) of relatively rotating between two housings having the leaded light effect concurrently (motion of β axle) and housing one with respect to the Z axle; Form 5-axis movement in conjunction with X, Y, Z to motion, thereby can realize product is carried out the 3 D stereo cutting.
The second, housing two can be with respect to the rotation of Z axle under the drive of housing one, and work in-process can make cutting head be in " distant place " on the one hand, and then avoids bumping with parts, can realize " dodging " effectively; Make also that on the other hand effective travel is bigger with respect to the scope of prior art, cutting room is bigger.
The 3rd; When 3 d part being carried out the space curve cutting; Piece surface to be cut often has irregular situation, and the utility model is provided with the cutting head follower originally, and it can guarantee that the distance between in cutting process focal position and cutting head nozzle and piece surface to be cut keeps constant; Make cut quality more stable, avoided the collision between cutting head and part to be cut simultaneously.
In addition, the utility model mechanical engagement (transmission) part is kept apart with the optic path part fully, has fundamentally solved the pollution of drive disk assembly to light path.And the rotating mechanism of the utility model, drive mechanism all are the top that the simplest gear, bevel gear, common servomotor and two motors all are positioned at rotating mechanism, make that the volume of rotating mechanism is very little.With a bit point to comparing of formula in the prior art, mechanism's cut coverage of the utility model is bigger, cutting power is stronger, volume is littler, weight is lighter, the better tightness of light path, especially the working ability to some deep holes is stronger.
Adopt the offset rotating mechanism generally speaking effective cutting room of X, Y, Z be that X, Y, Z effective travel deduct 2 times cutting head offset lengths.And the cutting head rotating mechanism of the utility model is because its structure is exquisite more, offset or dish is littler, and under identical X, Y, Z stroke, effectively X, Y, Z cutting room are bigger.Compare with " some sensing formulas ", " offset " rotating mechanism; The utility model volume is little, in light weight; Adopt common servomotor and simple transmission mechanism promptly can realize three-dimensional cutting, and simple in structure, for " some sensing formulas " and " offset " in the prior art; Reduced manufacturing cost significantly, made with low cost.
Description of drawings
Fig. 1 is the utility model external structure sketch map,
Fig. 2 is the structural representation of the utility model,
Fig. 3 be the utility model duty with reference to figure one,
Fig. 4 be the utility model duty with reference to figure two,
Fig. 5 is the structural representation of cutting head follower first embodiment in the utility model,
Fig. 6 is the duty variation diagram of Fig. 5,
Fig. 7 is the structural representation of cutting head follower second embodiment in the utility model,
Fig. 8 is the duty variation diagram of Fig. 7,
Fig. 9 is the structural representation of cutting head follower the 3rd embodiment in the utility model,
Figure 10 is the duty variation diagram of Fig. 9;
1 is bearing among the figure, the 10th, and the α axle, the 11st, motor α, the 110th, connect gear one, 12nd, motor β, the 120th, connect gear two, 13rd, tube,
The 2nd, housing one, 20th, eyeglass one, 21st, housing one gear, the 22nd, duplicate gear, the 221st, spur gear, the 222nd, bevel gear, the 23rd, light inlet one, 24th, the β axle,
The 3rd, housing two, 30th, eyeglass two, 31st, housing two bevel gears,
The 4th, cutting head, the 40th, the W axle,
The 5th, light beam,
The 611st, drive seat, the 612nd, holder,
The 6111st, step circle, the 6112nd, orientation lever, the 6121st, hydraulic cylinder cavity, 6122 deep holes, the 6123rd, hydraulic fluid port one, 6124th, hydraulic fluid port two,
The 621st, drive seat, the 622nd, holder,
The 6211st, mover, the 6212nd, locating slot, the 6213rd, L shaped connecting rod, the 6221st, stator, the 6222nd, alignment pin,
The 631st, drive seat, the 632nd, holder,
The 6311st, nut, the 6312nd, locating slot, the 6321st, screw rod, the 6322nd, alignment pin, the 6323rd, band chain transmission mechanism.
The specific embodiment
The utility model is shown in Fig. 1-4: comprise cutting head 4 driving mechanisms, said cutting head driving mechanism comprises bearing 1, motor α 11, motor β 12, duplicate gear 22, reflector group one and reflector group two;
Said bearing 1 comprises the seat board with mesopore, props up the seat board middle part and is provided with the tube 13 perpendicular to plate body, and said motor α 11 and motor β 12 are fixedly connected on prop up (tube 13 axle center are α axle 10) on the seat board of said tube 13 both sides respectively;
Said reflector group one comprises eyeglass 1, housing 1 and housing one gear 21; Said housing 1 has light-emitting window one and the light inlet 1 that is tubular; Said housing one gear 21 be located at said tubular light inlet 1 outer surface and with said tubular light inlet one 23 concentrics (housing one gear 21 fixedly is connected as a single entity with housing 1);
Said reflector group two comprises eyeglass 2 30, housing 23 and housing two bevel gears 31; Said housing 23 has light inlet two and light-emitting window two; Said housing two bevel gears 31 be fixedly connected on said light inlet two the aperture and with said light inlet two concentrics (is β axle 24 like light mouth two axle center);
Said duplicate gear 22 is movably connected on said tubular light inlet one 23 outer surfaces, be in said housing one gear 21 the bottom and with said tubular light inlet one 23 concentrics, can freely rotate and axial restraint with respect to said housing 1; Said duplicate gear 22 comprises that spur gear 221 and bevel gear 222, said spur gear 221 are positioned at the top of said bevel gear 222;
The tubular light inlet 1 of said housing 1 is articulated in the tube 13 of said bearing; Said housing one gear 21 is in the below of said seat board;
The motor shaft of said motor α 11 runs through said seat board, through connecting said housing one gear 21 of gears engaged, drives said housing 1 and rotates around the axle center (being α axle 10) of the tube 13 of said bearing;
The motor shaft of said motor β 12 runs through said seat board, through connecting the spur gear 221 of the said duplicate gear 22 of gears engaged, drives said duplicate gear 22 rotations;
The light inlet two of said housing 23 articulates with the light-emitting window of said housing 1 one; Bevel gear 222 in the said duplicate gear 22 and 31 engagements of said housing two bevel gears, and then drive said housing 23 and rotate around the axle center of said housing one light-emitting window (being the β axle);
Said cutting head 4 is fixedly connected on the light-emitting window two of said housing 23.
Be 90 ° of angles between said light inlet 1 and the light-emitting window one; Be 90 ° of angles between said light inlet two and the said light-emitting window two.
The axle center of the tube 13 of motor α 11, motor β 12 and said bearing is parallel to each other.
Duty such as Fig. 2,3,4 need to prove: rotating mechanism is done when 10 rotations of α axle, and motor α 11 actions need motor β 12 to follow action simultaneously; And rotating mechanism is when β axle 24 rotation, and motor β 12 actions need not motor α 11 and follow action.The mechanism of the utility model can drive the omnidirectional that cutting head 4 centers on α axle 10, β axle 24 and rotatablely move, and the rectilinear motion of collaborative X, Y, Z direction can be realized three-dimensional cutting processing.Light beam 5 be in housing 1, housing 23 inner than on the short path, be hedged off from the outer world, light path can not occur and pollute and optical energy loss.
In order further to adapt to the processing of 3 D stereo processing and the uneven situation of piece surface.Said driving mechanism also comprises cutting head follower (realization be axial rectilinear motion), makes cutting head axially move with respect to the axis (being W axle 40) of light-emitting window two on the said housing 23; Said cutting head follower comprises holder with mesopore and the tubular drive seat that is movably connected in the holder mesopore; Holder is fixedly connected on the oral area of said light-emitting window two, and said cutting head 4 is fixedly connected on the bottom of said drive seat.
Cutting head follower embodiment is just like Fig. 5, shown in 6: be provided with hydraulic cylinder cavity 6121 in said holder 612 mesopores; The outer wall middle part of said drive seat 611 has been provided with the step circle 6111 of piston action, step circle 6111 on described drive seat 611 outer walls and interior hydraulic cylinder cavity 6121 sealings of said holder 612 mesopores; The external cylindrical surface of drive seat and the inner cylinder face of holder cooperatively interact, and make drive seat to do reciprocating linear motion with respect to holder.Certainly the hydraulic cylinder cavity 6121 of holder need be provided with hydraulic fluid port 1 and hydraulic fluid port 2 6124, is used to connect hydraulic oil source.
Offer deep hole 6122 in said holder 612 bottom surfaces, said deep hole 6122 is parallel to the axis of said light-emitting window two; The side of said drive seat 611 bottoms is fixedly connected an orientation lever 6112 through connecting rod, said orientation lever 6112 stretches in the said deep hole 6122, with said deep hole 6122 concentrics.
Cutting head follower embodiment two is like Fig. 7, shown in 8: said holder 622 outsides are provided with linear motor stator electric 6221; Said drive seat 621 bottoms are fixedly connected with linear motor rotor 6211 through L shaped connecting rod 6213; Said linear motor rotor 6211 is fitted on the said linear motor stator electric 6221.
Said drive seat 621 outer surfaces offer axial location groove 6212, and the outer surface of said holder 622 offers the locating hole perpendicular to mesopore, is provided with alignment pin 6222 in the said locating hole, and said alignment pin 6222 stretches in the said locating slot 6212.
Cutting head follower embodiment three is like Fig. 9, shown in 10: said holder 632 outsides are provided with the screw rod 6321 that is driven by band/chain-drive mechanism 6323, said screw rod 6321 parallel axes axially bored line in said holder 632; Said drive seat 631 bottom outside are fixedly connected with nut 6311 through connecting rod; Said nut 6311 connects said screw rod 6321.
Said drive seat 631 outer surfaces offer axial location groove 6312, and said holder 632 offers the locating hole perpendicular to mesopore, is provided with alignment pin 6322 in the said locating hole, and said alignment pin 6322 stretches in the said locating slot 6312.
The operation principle of follower is: three-dimensional five laser cutting machines are in the space multistory cutting process; Part to be cut has irregular concavo-convex (difference between the profile of actual cutting parts and the desirable model of the theory in the digital control system) injustice; The distance of the nozzle of focus and cutting head and part will change constantly in cutting process like this; Make cut quality unstable, even cutting head can bump.
The sensor in real time that is arranged on the cutting head feeds back to digital control system with the distance signal between cutting head and part; Digital control system drives follower according to feedback signal; The distance of focusing position and nozzle and part is adjusted in real time; Guarantee constant distance, guarantee the stable of cut quality, avoid collision.
Claims (10)
1. the three-dimensional laser cutting machine comprises the cutting head driving mechanism, it is characterized in that, said cutting head driving mechanism comprises bearing, motor α, motor β, duplicate gear, reflector group one and reflector group two;
Said bearing comprises the seat board with mesopore, and a seat board middle part is provided with the tube perpendicular to plate body, and said motor α and motor β are fixedly connected on respectively on the seat board of said tube both sides;
Said reflector group one comprises eyeglass one, housing one and housing one gear; Said housing one has light-emitting window one and the light inlet one that is tubular; Said housing one gear be located at said tubular light inlet one outer surface and with said tubular light inlet one concentric;
Said reflector group two comprises eyeglass two, housing two and housing two bevel gears; Said housing two has light inlet two and light-emitting window two; Said housing two bevel gears be fixedly connected on said light inlet two the aperture and with said light inlet two concentrics;
Said duplicate gear is movably connected on said tubular light inlet one outer surface, be in said housing one gear the bottom and with said tubular light inlet one concentric, can freely rotate and axial restraint with respect to said housing one; Said duplicate gear comprises that spur gear and bevel gear, said spur gear are positioned at the top of said bevel gear;
The tubular light inlet one of said housing one is articulated in the tube of said bearing; Said housing one gear is in said seat board below;
The motor shaft of said motor α runs through said seat board, through connecting said housing one gear of gears engaged, drives said housing one and rotates around the axle center of the tube of said bearing;
The motor shaft of said motor β runs through said seat board, through connecting the spur gear of the said duplicate gear of gears engaged, drives said duplicate gear rotation;
The light inlet two of said housing two articulates with the light-emitting window of said housing 1 one; Bevel gear in the said duplicate gear and said housing plug tap gears engaged, and then drive said housing two around the rotation of the axle center of said housing one light-emitting window;
Said cutting head is fixedly connected on the light-emitting window two of said housing two.
2. three-dimensional laser cutting machine according to claim 1 is characterized in that, is 90 ° of angles between said light inlet one and the light-emitting window one; Be 90 ° of angles between said light inlet two and the said light-emitting window two.
3. three-dimensional laser cutting machine according to claim 1 is characterized in that, the axle center of the tube of motor α, motor β and said bearing is parallel to each other.
4. according to claim 1,2 or 3 described three-dimensional laser cutting machines, it is characterized in that said driving mechanism also comprises the cutting head follower, make cutting head axially move with respect to the axis of light-emitting window two on the said housing two; Said cutting head follower comprises holder with mesopore and the tubular drive seat that is movably connected in the holder mesopore; Holder is fixedly connected on the oral area of said light-emitting window two, and said cutting head is fixedly connected on the bottom of said drive seat.
5. three-dimensional laser cutting machine according to claim 4 is characterized in that, is provided with hydraulic cylinder cavity in the said holder mesopore; The outer wall middle part of said drive seat has been provided with the step circle of piston action, the hydraulic cylinder cavity sealing in step circle on the described drive seat outer wall and the said holder mesopore; The external cylindrical surface of drive seat and the inner cylinder face of holder cooperatively interact, and make drive seat to do reciprocating linear motion with respect to holder.
6. three-dimensional laser cutting machine according to claim 5 is characterized in that, offers deep hole in said holder bottom surface, and said deep hole is parallel to the axis of said light-emitting window two; The side of said drive seat bottom is fixedly connected an orientation lever through connecting rod, said orientation lever stretches in the said deep hole, with said deep hole concentric.
7. three-dimensional laser cutting machine according to claim 4 is characterized in that, the said holder outside is provided with linear motor stator electric; Said drive seat bottom is fixedly connected with linear motor rotor through L shaped connecting rod; Said linear motor rotor is fitted on the said linear motor stator electric.
8. three-dimensional laser cutting machine according to claim 7; It is characterized in that said drive seat outer surface offers the axial location groove, said holder offers the locating hole perpendicular to mesopore; Be provided with alignment pin in the said locating hole, said alignment pin stretches in the said locating slot.
9. three-dimensional laser cutting machine according to claim 4 is characterized in that, the said holder outside is provided with the screw rod that is driven by band/chain-drive mechanism, and said screw axis is parallel to axially bored line in the said holder; Said drive seat bottom outside is fixedly connected with nut through connecting rod; Said nut connects said screw rod.
10. three-dimensional laser cutting machine according to claim 9; It is characterized in that said drive seat outer surface offers the axial location groove, said holder offers the locating hole perpendicular to mesopore; Be provided with alignment pin in the said locating hole, said alignment pin stretches in the said locating slot.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN 201220032587 CN202506961U (en) | 2012-02-02 | 2012-02-02 | Three-dimensional laser cutting machine |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN 201220032587 CN202506961U (en) | 2012-02-02 | 2012-02-02 | Three-dimensional laser cutting machine |
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| Publication Number | Publication Date |
|---|---|
| CN202506961U true CN202506961U (en) | 2012-10-31 |
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| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN 201220032587 Expired - Fee Related CN202506961U (en) | 2012-02-02 | 2012-02-02 | Three-dimensional laser cutting machine |
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Cited By (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN102528279A (en) * | 2012-02-02 | 2012-07-04 | 江苏扬力数控机床有限公司 | Three-dimensional laser cutting machine |
| CN104551384A (en) * | 2013-12-09 | 2015-04-29 | 大连光洋科技工程有限公司 | Direct-driven three-dimensional laser machining head for alternating-current permanent magnet synchronous torque motor |
| CN107186338A (en) * | 2017-07-04 | 2017-09-22 | 华工法利莱切焊系统工程有限公司 | Laser cutting head and dimension laser cutting device |
-
2012
- 2012-02-02 CN CN 201220032587 patent/CN202506961U/en not_active Expired - Fee Related
Cited By (4)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN102528279A (en) * | 2012-02-02 | 2012-07-04 | 江苏扬力数控机床有限公司 | Three-dimensional laser cutting machine |
| CN104551384A (en) * | 2013-12-09 | 2015-04-29 | 大连光洋科技工程有限公司 | Direct-driven three-dimensional laser machining head for alternating-current permanent magnet synchronous torque motor |
| CN104551384B (en) * | 2013-12-09 | 2017-10-10 | 科德数控股份有限公司 | Alternating-current synchronous direct drive of torque motor formula three-dimensional laser processing head |
| CN107186338A (en) * | 2017-07-04 | 2017-09-22 | 华工法利莱切焊系统工程有限公司 | Laser cutting head and dimension laser cutting device |
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