Movatterモバイル変換


[0]ホーム

URL:


CN104985181A - Laser scanning method for manufacturing three-dimensional object - Google Patents

Laser scanning method for manufacturing three-dimensional object
Download PDF

Info

Publication number
CN104985181A
CN104985181ACN201510472354.0ACN201510472354ACN104985181ACN 104985181 ACN104985181 ACN 104985181ACN 201510472354 ACN201510472354 ACN 201510472354ACN 104985181 ACN104985181 ACN 104985181A
Authority
CN
China
Prior art keywords
scanned
scanning
region
adjacent
laser scanning
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.)
Granted
Application number
CN201510472354.0A
Other languages
Chinese (zh)
Other versions
CN104985181B (en
Inventor
许小曙
王朝龙
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Hunan Farsoon High Tech Co Ltd
Original Assignee
Hunan Farsoon High Tech Co Ltd
Priority date (The priority date 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 date listed.)
Filing date
Publication date
Application filed by Hunan Farsoon High Tech Co LtdfiledCriticalHunan Farsoon High Tech Co Ltd
Priority to CN201510472354.0ApriorityCriticalpatent/CN104985181B/en
Publication of CN104985181ApublicationCriticalpatent/CN104985181A/en
Application grantedgrantedCritical
Publication of CN104985181BpublicationCriticalpatent/CN104985181B/en
Activelegal-statusCriticalCurrent
Anticipated expirationlegal-statusCritical

Links

Classifications

Abstract

The invention provides a laser scanning method for manufacturing a three-dimensional object. The method comprises: a current cross section contour is divided into a plurality of to-be-scanned areas, wherein all boundaries of the current cross section contour are divided, the to-be-scanned areas are in shapes of regular hexagons or partial regular hexagons, and the gaps among the adjacent to-be-scanned areas are larger than or equal to zero; filling scanning is carried out on the insides of the multiple to-be-scanned areas and the scanning lines employed by the adjacent to-be-scanned areas form preset included angles, wherein the preset angles are larger than 0 degree and are less than 180 degrees; and for all adjacent to-be-scanned area gaps, scanning is carried out by using at least one scanning line. According to the invention, compared with the regular-triangle partition scanning, the regular-hexagon partition areas are proper and no shortest scanning filling path exists, and the laser does not need to be turned on or off frequently, so that the scanning efficiency is high. Moreover, compared with the chessboard partition scanning, the scanning lines of the regular-hexagon partition are different, so that the residual stress between the adjacent scanning lines can be released easily. Therefore, with the laser scanning method, the residual stress influence is reduced; the scanning efficiency is not affected; and the workpiece molding quality is improved.

Description

For the manufacture of the Laser Scanning of three-dimensional body
Technical field
The invention belongs to rapid shaping technique field, be specifically related to a kind of Laser Scanning for the manufacture of three-dimensional body.
Background technology
Rapid shaping technique (Rapid Prototyping, be called for short RP) be an advanced manufacturing technology with distinguishing features such as Digitized manufacturing, highly flexible and adaptability, directly cad model drive, quick, material type is rich and varied, be developed so far from later 1980s, oneself becomes a mainstay in modern advanced manufacturing technique.For selective laser melting process, its concrete technology mainly comprises hierarchy slicing, send paving powder, laser scanning step, and the planning of scanning pattern plays vital effect to the distribution of the heat distribution in forming process, residual stress, part accuracy and sweep speed etc. in laser scanning step.
In prior art, more employing has chessboard subregion to carry out laser scanning, but chessboard subarea-scanning mode, its residual stress distribution is discrete, and needs frequently to change scanning strategy, and span is comparatively large, therefore affects scan efficiency.
In prior art, also have and adopt equilateral triangle subregion to carry out laser scanning, although this scan mode can solve the discrete technical problem of residual stress distribution, but due to three corner positions of equilateral triangle, scan line is shorter, thus just need the frequent switch of laser instrument, so not only have impact on the service life of laser instrument, and greatly reduce sweep speed.
Summary of the invention
For the above-mentioned technical problem that prior art exists, the invention provides a kind of impact reducing residual stress, take into account scan efficiency again simultaneously, improve the Laser Scanning for the manufacture of three-dimensional body of Workpiece shaping quality.
For solving the problems of the technologies described above, the present invention by the following technical solutions:
For the manufacture of the Laser Scanning of three-dimensional body, comprise the following steps:
Current cross-section profile is divided into several regions to be scanned, and all borders of current cross-section profile are all divided, described region to be scanned is regular hexagon or local regular hexagon, and the gap in described adjacent region to be scanned is more than or equal to zero;
Carry out filling scanning to the inside in several regions to be scanned respectively, and the scan line that adjacent region to be scanned adopts is predetermined angle angle, described predetermined angle is greater than 0 degree, and is less than 180 degree;
For all adjacent gaps, region to be scanned, at least one scan line is adopted to scan successively.
Further preferably, current cross-section profile is divided into several regions to be scanned specifically to comprise:
Minimum enclosed rectangle is drawn according to current cross-section profile;
By the every of minimum enclosed rectangle while extend out predeterminable range to form subregion reference frame;
Described subregion reference frame is paved with successively from the multiple regular hexagon in subregion reference frame side;
The all regular hexagons or local regular hexagon that are included in current cross-section profile are denoted as region to be scanned.
Further preferably, described predeterminable range is greater than zero, and is less than the orthohexagonal length of side.
Further preferably, carry out filling scanning to the inside in several regions to be scanned respectively specifically to comprise:
The scan line being parallel to arbitrary regular hexagon limit in current region to be scanned is adopted to carry out parallel sweep to current region to be scanned;
After current sector scanning to be scanned, continue to adopt the scan line being parallel to arbitrary regular hexagon limit in next region to be scanned to carry out parallel sweep to next region to be scanned, and the scan line that adjacent region to be scanned adopts is predetermined angle angle, described predetermined angle is greater than 0 degree, and is less than 180 degree;
Repeat above-mentioned steps, until all sector scannings to be scanned are complete.
Further preferably, the scan line that described adjacent region to be scanned adopts is 120 degree of angles.
Further preferably, fill scanning process in the inside in described region to be scanned, the scanning direction of adjacent scanning lines is identical or contrary.
Further preferably, the gap in all adjacent regions to be scanned is equal.
Further preferably, described trace interval of filling in scanning equals the trace interval in gap scanning.
Further preferably, described method also comprises: when the gap in region to be scanned is zero, adopts a scan line to scan the gap in all regions to be scanned successively.
Further preferably, described method also comprises: when the gap in region to be scanned is greater than zero, adopts two or three scan line to scan the gap in all regions to be scanned successively.
The present invention is for the manufacture of the Laser Scanning of three-dimensional body, by comprising: current cross-section profile to be divided into several regions to be scanned, and all borders of current cross-section profile are all divided, described region to be scanned is regular hexagon or local regular hexagon, and the gap in described adjacent region to be scanned is more than or equal to zero; Carry out filling scanning to the inside in several regions to be scanned respectively, and the scan line that adjacent region to be scanned adopts is predetermined angle angle, described predetermined angle is greater than 0 degree, and is less than 180 degree; For all adjacent gaps, region to be scanned, adopt at least one scan line to scan successively, make relative to equilateral triangle subarea-scanning, regular hexagon Division area of the present invention is moderate, inner do not have scanning filling path short especially, and laser does not need switch frequently, and scan efficiency is higher; And relative to chessboard subarea-scanning, the scan line of regular hexagon subregion of the present invention is different in size, thus residual stress between adjacent scanning lines is more easily discharged.Therefore, the present invention not only reduces the impact of residual stress for the manufacture of the Laser Scanning of three-dimensional body, and has taken into account again scan efficiency, improves Workpiece shaping quality.
Accompanying drawing explanation
The method flow diagram of the embodiment that Fig. 1 provides for the manufacture of the Laser Scanning of three-dimensional body for the present invention;
Fig. 2 is the Region dividing schematic diagram to be scanned of an embodiment provided by the invention;
Fig. 3 is that the intra-zone to be scanned of an embodiment provided by the invention fills scanning schematic diagram;
Fig. 4 is that the current cross-section profile scan of an embodiment provided by the invention completes schematic diagram.
Detailed description of the invention
Understand better to allow those skilled in the art and realize technical scheme of the present invention, being described in further details below with reference to Figure of description and specific embodiment.
As shown in Figure 1, for the manufacture of the Laser Scanning of three-dimensional body, comprise the following steps:
Step 11: current cross-section profile is divided into several regions to be scanned, and all borders of current cross-section profile are all divided, described region to be scanned is regular hexagon or local regular hexagon, and the gap in described adjacent region to be scanned is more than or equal to zero;
This step 11 can realize especially by with under type, as shown in Figure 2:
Minimum enclosed rectangle is drawn according to current cross-section profile;
By the every of minimum enclosed rectangle while extend out predeterminable range to form subregion reference frame;
Described subregion reference frame is paved with successively from the multiple regular hexagon in subregion reference frame side; Be understandable that, the multiple regular hexagon of subregion reference frame can be paved with according to arbitrary order by the present invention, has only write a kind of detailed description of the invention herein, but not the present invention is not limited to this kind of mode, can also be alternate manner, such as, be paved with from center, then respectively to both sides paving powder;
The all regular hexagons or local regular hexagon that are included in current cross-section profile are denoted as region to be scanned, and each regular hexagon or each local regular hexagon are a region to be scanned.
Described hereinly be, minimum enclosed rectangle every while extend out distance can be equal, can certainly be unequal, concrete condition needs to determine according to design, preferably, described predeterminable range is greater than zero, and is less than the orthohexagonal length of side, so not only make Region dividing more reasonable, and be convenient to the robustness of follow-up intersection algorithm.
Described above is a kind of mode current cross-section profile being divided into several regions to be scanned, in concrete enforcement, alternate manner can also be adopted to realize, such as, several regular hexagons are adopted to be paved with whole current cross-section profile from centre to surrounding, finally all regular hexagons or local regular hexagon that are included in current cross-section profile are denoted as region to be scanned, can implementation enumerate all at this.
It should be noted that at this, described local regular hexagon refers to an orthohexagonal local, the border of current cross-section profile as shown in Figure 2, and the region to be scanned of display is local regular hexagon.
Step 12: carry out filling scanning to the inside in several regions to be scanned respectively, and the scan line that adjacent region to be scanned adopts is predetermined angle angle, described predetermined angle is greater than 0 degree, and is less than 180 degree;
This step 12 can realize especially by with under type, as shown in Figure 3:
The scan line being parallel to arbitrary regular hexagon limit in current region to be scanned is adopted to carry out parallel sweep to current region to be scanned, wherein the scanning direction of adjacent scanning lines is identical or contrary, namely according to from side to opposite side, again from opposite side to side, mode by that analogy scans, certainly, can also according to being all at every turn that mode from side to opposite side scans;
After current sector scanning to be scanned, continue to adopt the scan line being parallel to arbitrary regular hexagon limit in next region to be scanned to carry out parallel sweep to next region to be scanned, and the scan line that adjacent region to be scanned adopts is predetermined angle angle, described predetermined angle is greater than 0 degree, and is less than 180 degree;
Repeat above-mentioned steps, until all sector scannings to be scanned are complete.
Preferably, the scan line that described adjacent region to be scanned adopts is 120 degree of angles, certainly, can also be other angle, not enumerate at this.
It should be noted that at this, for the scanning sequency in several regions to be scanned, can according to from side, scan one by one along zigzag trajectory or other track while scan, preferably, adopt based on nearby principle and scan line is consistent when scan one by one, such as, as shown in Figure 3, a kind of scan line is first selected to carry out the scanning (top left side see current cross-section profile) in regular hexagon region, local, continue with the scan line in this direction scanning regular hexagon region, local (top right side see current cross-section profile) nearby, the first row scanning is over, refer again to the first row scan mode, to be 120 degree of angles with the first row scan line, scan line scans the second row, mode by that analogy completes last column scanning, after last column has scanned, the region to be scanned that centre is not scanned in addition is scanned, until all sector scannings to be scanned complete end, concrete scan mode can see Fig. 3, like this can in order to avoid frequently change scan-line direction, thus improve scan efficiency.
Step 13: for all adjacent gaps, region to be scanned, adopt at least one scan line to scan successively, wherein, the scan line in gap as shown in phantom in Figure 4.
In this step 13, described adjacent gap, region to be scanned can be more than or equal to zero, and preferably, described adjacent gap, region to be scanned is greater than zero, can reduce the residual stress between region to be scanned so further.
In concrete enforcement, when the gap in region to be scanned is zero, a scan line is adopted to scan the gap in all regions to be scanned successively; And when the gap in region to be scanned is greater than zero, adopt two or three scan line to scan the gap in all regions to be scanned successively, certainly, the concrete quantity of above-mentioned scan line can set according to the width in adjacent gap, region to be scanned.
In concrete enforcement, the gap in all adjacent regions to be scanned can be equal, can certainly be unequal, further preferably, residual stress due to current cross-section profile medium position is greater than the residual stress of boundary position, therefore, in order to disperse residual stress better, for the region to be scanned being positioned at current cross-section profile medium position, its adjacent gap, region to be scanned can arrange wider, and for being positioned at the region to be scanned of current cross-section profile boundary position, its adjacent gap, region to be scanned can be arranged more narrowly.
In concrete enforcement, described trace interval of filling in scanning equals the trace interval in gap scanning, certainly, so mainly for the ease of simple to operate, but the present invention is not limited to this kind of implementation, it can also be alternate manner, and such as, the trace interval arranged in filling scanning is not equal to the trace interval in gap scanning.
Be understandable that, above-mentioned steps 12 and step 13 can be exchanged in the order performed, and first can perform step 12, then perform step 13, or first perform step 13, then perform step 12.
It should be noted that at this, although only describe the scanning of current cross-section profile above, but because the cross section profile after each layering of workpiece all can scan with reference to above-mentioned scan method, therefore, those skilled in the art is with reference to after technique scheme of the present invention, just can realize the laser scanning of workpiece manufacture process well, reach technique effect of the present invention.
Above embodiment is only the preferred embodiment of the present invention, protection scope of the present invention be not only confined to above-described embodiment, and all technical schemes belonged under thinking of the present invention all should belong to protection scope of the present invention.It should be pointed out that some amendments without departing from the principles of the present invention and modification, should protection scope of the present invention be considered as.

Claims (10)

CN201510472354.0A2015-08-052015-08-05Laser Scanning for manufacturing three-dimensional bodyActiveCN104985181B (en)

Priority Applications (1)

Application NumberPriority DateFiling DateTitle
CN201510472354.0ACN104985181B (en)2015-08-052015-08-05Laser Scanning for manufacturing three-dimensional body

Applications Claiming Priority (1)

Application NumberPriority DateFiling DateTitle
CN201510472354.0ACN104985181B (en)2015-08-052015-08-05Laser Scanning for manufacturing three-dimensional body

Publications (2)

Publication NumberPublication Date
CN104985181Atrue CN104985181A (en)2015-10-21
CN104985181B CN104985181B (en)2017-07-28

Family

ID=54297140

Family Applications (1)

Application NumberTitlePriority DateFiling Date
CN201510472354.0AActiveCN104985181B (en)2015-08-052015-08-05Laser Scanning for manufacturing three-dimensional body

Country Status (1)

CountryLink
CN (1)CN104985181B (en)

Cited By (28)

* Cited by examiner, † Cited by third party
Publication numberPriority datePublication dateAssigneeTitle
CN105312569A (en)*2015-11-102016-02-10西安铂力特激光成形技术有限公司Layered block metal material adding manufacturing method
CN105750543A (en)*2016-03-032016-07-13西安铂力特激光成形技术有限公司Checkerboard-type laser scanning route planning method
CN106493367A (en)*2016-12-082017-03-15鑫精合激光科技发展(北京)有限公司A kind of Laser Scanning for selective laser fusing
CN106926465A (en)*2015-12-312017-07-07周宏志A kind of fractional scanning path generating method of control increasing material manufacturing stress deformation
CN106984812A (en)*2017-04-012017-07-28鑫精合激光科技发展(北京)有限公司A kind of reinforced Laser Scanning melted for selective laser
CN107498052A (en)*2017-09-222017-12-22华中科技大学A kind of load balancing for more laser SLM building mortions scans manufacturing process
CN107953552A (en)*2017-11-242018-04-24湖南华曙高科技有限责任公司Laser Scanning, readable storage medium storing program for executing and laser scanning control device
CN106077638B (en)*2016-05-312018-08-24合肥工业大学A kind of cellular subarea-scanning method for increasing material manufacturing
CN108665493A (en)*2018-04-172018-10-16湖南华曙高科技有限责任公司3 D-printing scan method, readable storage medium storing program for executing and 3 D-printing scanning controller
CN108907190A (en)*2018-07-252018-11-30沈阳精合数控科技开发有限公司A kind of 3D printing increasing material manufacturing method of bowl-type thin-walled parts
CN108941560A (en)*2018-07-272018-12-07中南大学A method of it eliminating Rene104 nickel base superalloy laser gain material and manufactures crackle
CN109047759A (en)*2018-08-152018-12-21南京理工大学A kind of Laser Scanning for improving interlaminar strength and reducing buckling deformation
CN109226759A (en)*2018-10-232019-01-18大族激光科技产业集团股份有限公司Scan path setting method, device and the control equipment of powdering formula laser 3D printing
CN109359381A (en)*2018-10-162019-02-19北京星航机电装备有限公司A kind of voxel-based laser path planing method
CN109420760A (en)*2017-08-222019-03-05湖南大学A kind of high energy beam planning parameters of scanning paths method for increasing material manufacturing
CN109434104A (en)*2018-11-262019-03-08西安增材制造国家研究院有限公司A kind of scan method for metal laser selective melting forming technology
CN110625114A (en)*2019-09-262019-12-31鑫精合激光科技发展(北京)有限公司 A laser scanning method for coaxial powder feeding
CN110918988A (en)*2019-11-052020-03-27中航迈特粉冶科技(北京)有限公司Laser scanning path planning method and additive manufacturing method
CN112417646A (en)*2020-10-202021-02-26湖南华曙高科技有限责任公司Scanning path planning method and device based on odd multi-laser and three-dimensional object manufacturing equipment
CN112519233A (en)*2020-11-302021-03-19优你造科技(北京)有限公司Curing method and device for 3D printing
CN112721175A (en)*2020-12-182021-04-30湖南华曙高科技有限责任公司Scanning path planning method and device for rapid prototyping device and readable storage medium
CN112907749A (en)*2021-05-072021-06-04杭州今奥信息科技股份有限公司Three-dimensional reconstruction method and system for multiple buildings
CN113399824A (en)*2021-06-182021-09-17江苏永年激光成形技术有限公司Multi-partition redundancy scanning method
CN113681028A (en)*2021-08-312021-11-23上海大学Method and device for additive manufacturing of aluminum alloy in static magnetic field
CN114166145A (en)*2021-11-302022-03-11西安交通大学Deformation control method and system based on heat affected zone heating sequence re-planning
CN115415547A (en)*2022-11-072022-12-02北京清研智束科技有限公司Electron beam scanning method, apparatus, device and medium
CN115592133A (en)*2022-12-132023-01-13中车工业研究院(青岛)有限公司(Cn)Laser sintering scanning method, device and equipment and readable storage medium
CN116833426A (en)*2023-06-292023-10-03鑫精合激光科技发展(北京)有限公司 A laser stereoscopic scanning additive manufacturing method, device and equipment

Citations (7)

* Cited by examiner, † Cited by third party
Publication numberPriority datePublication dateAssigneeTitle
CN101219068A (en)*2007-12-292008-07-16北京吉马飞科技发展有限公司Stereo grid shaped bone filler and manufacturing method thereof
CN101670432A (en)*2009-07-142010-03-17黑龙江科技学院New method used for realizing powder melting and forming based on laser scanning
CN203140768U (en)*2013-04-082013-08-21余振新Molding platform of selectivity laser sintering device
CN103722171A (en)*2013-12-252014-04-16合肥工业大学Honeycombed laser scanning method for selective laser sintering
CN104043831A (en)*2014-06-132014-09-17首都航天机械公司Preparation method of titanium alloy thin-wall honeycomb structure
CN104550950A (en)*2014-11-242015-04-29湖南华曙高科技有限责任公司Laser scanning method for laser melting in selected area
JP2015086086A (en)*2013-10-282015-05-07独立行政法人物質・材料研究機構 Method for producing hexagonal tungsten nitride sintered body and hexagonal tungsten nitride sintered body

Patent Citations (7)

* Cited by examiner, † Cited by third party
Publication numberPriority datePublication dateAssigneeTitle
CN101219068A (en)*2007-12-292008-07-16北京吉马飞科技发展有限公司Stereo grid shaped bone filler and manufacturing method thereof
CN101670432A (en)*2009-07-142010-03-17黑龙江科技学院New method used for realizing powder melting and forming based on laser scanning
CN203140768U (en)*2013-04-082013-08-21余振新Molding platform of selectivity laser sintering device
JP2015086086A (en)*2013-10-282015-05-07独立行政法人物質・材料研究機構 Method for producing hexagonal tungsten nitride sintered body and hexagonal tungsten nitride sintered body
CN103722171A (en)*2013-12-252014-04-16合肥工业大学Honeycombed laser scanning method for selective laser sintering
CN104043831A (en)*2014-06-132014-09-17首都航天机械公司Preparation method of titanium alloy thin-wall honeycomb structure
CN104550950A (en)*2014-11-242015-04-29湖南华曙高科技有限责任公司Laser scanning method for laser melting in selected area

Cited By (37)

* Cited by examiner, † Cited by third party
Publication numberPriority datePublication dateAssigneeTitle
CN105312569A (en)*2015-11-102016-02-10西安铂力特激光成形技术有限公司Layered block metal material adding manufacturing method
CN106926465A (en)*2015-12-312017-07-07周宏志A kind of fractional scanning path generating method of control increasing material manufacturing stress deformation
CN105750543A (en)*2016-03-032016-07-13西安铂力特激光成形技术有限公司Checkerboard-type laser scanning route planning method
CN105750543B (en)*2016-03-032018-05-18西安铂力特增材技术股份有限公司A kind of checkerboard type laser beam scan path planing method
CN106077638B (en)*2016-05-312018-08-24合肥工业大学A kind of cellular subarea-scanning method for increasing material manufacturing
CN106493367A (en)*2016-12-082017-03-15鑫精合激光科技发展(北京)有限公司A kind of Laser Scanning for selective laser fusing
CN106984812B (en)*2017-04-012019-01-04鑫精合激光科技发展(北京)有限公司A kind of reinforced Laser Scanning for selective laser fusing
CN106984812A (en)*2017-04-012017-07-28鑫精合激光科技发展(北京)有限公司A kind of reinforced Laser Scanning melted for selective laser
CN109420760A (en)*2017-08-222019-03-05湖南大学A kind of high energy beam planning parameters of scanning paths method for increasing material manufacturing
CN107498052A (en)*2017-09-222017-12-22华中科技大学A kind of load balancing for more laser SLM building mortions scans manufacturing process
CN107953552A (en)*2017-11-242018-04-24湖南华曙高科技有限责任公司Laser Scanning, readable storage medium storing program for executing and laser scanning control device
CN108665493A (en)*2018-04-172018-10-16湖南华曙高科技有限责任公司3 D-printing scan method, readable storage medium storing program for executing and 3 D-printing scanning controller
CN108907190A (en)*2018-07-252018-11-30沈阳精合数控科技开发有限公司A kind of 3D printing increasing material manufacturing method of bowl-type thin-walled parts
CN108907190B (en)*2018-07-252020-07-31沈阳精合数控科技开发有限公司3D printing additive manufacturing method for bowl-shaped thin-wall part
CN108941560A (en)*2018-07-272018-12-07中南大学A method of it eliminating Rene104 nickel base superalloy laser gain material and manufactures crackle
CN109047759A (en)*2018-08-152018-12-21南京理工大学A kind of Laser Scanning for improving interlaminar strength and reducing buckling deformation
CN109359381A (en)*2018-10-162019-02-19北京星航机电装备有限公司A kind of voxel-based laser path planing method
CN109359381B (en)*2018-10-162022-05-17北京星航机电装备有限公司Laser path planning method based on voxels
CN109226759A (en)*2018-10-232019-01-18大族激光科技产业集团股份有限公司Scan path setting method, device and the control equipment of powdering formula laser 3D printing
CN109434104A (en)*2018-11-262019-03-08西安增材制造国家研究院有限公司A kind of scan method for metal laser selective melting forming technology
CN110625114A (en)*2019-09-262019-12-31鑫精合激光科技发展(北京)有限公司 A laser scanning method for coaxial powder feeding
CN110625114B (en)*2019-09-262021-11-05鑫精合激光科技发展(北京)有限公司 A laser scanning method for coaxial powder feeding
CN110918988B (en)*2019-11-052021-07-20中航迈特粉冶科技(北京)有限公司Laser scanning path planning method and additive manufacturing method
CN110918988A (en)*2019-11-052020-03-27中航迈特粉冶科技(北京)有限公司Laser scanning path planning method and additive manufacturing method
CN112417646B (en)*2020-10-202023-11-17湖南华曙高科技股份有限公司Scanning path planning method and device based on odd number multiple lasers and three-dimensional object manufacturing equipment
CN112417646A (en)*2020-10-202021-02-26湖南华曙高科技有限责任公司Scanning path planning method and device based on odd multi-laser and three-dimensional object manufacturing equipment
CN112519233A (en)*2020-11-302021-03-19优你造科技(北京)有限公司Curing method and device for 3D printing
CN112721175A (en)*2020-12-182021-04-30湖南华曙高科技有限责任公司Scanning path planning method and device for rapid prototyping device and readable storage medium
CN112907749A (en)*2021-05-072021-06-04杭州今奥信息科技股份有限公司Three-dimensional reconstruction method and system for multiple buildings
CN113399824A (en)*2021-06-182021-09-17江苏永年激光成形技术有限公司Multi-partition redundancy scanning method
CN113681028A (en)*2021-08-312021-11-23上海大学Method and device for additive manufacturing of aluminum alloy in static magnetic field
CN114166145A (en)*2021-11-302022-03-11西安交通大学Deformation control method and system based on heat affected zone heating sequence re-planning
CN114166145B (en)*2021-11-302022-10-25西安交通大学 Deformation control method and system based on heat-affected zone heating sequence re-planning
CN115415547A (en)*2022-11-072022-12-02北京清研智束科技有限公司Electron beam scanning method, apparatus, device and medium
CN115592133A (en)*2022-12-132023-01-13中车工业研究院(青岛)有限公司(Cn)Laser sintering scanning method, device and equipment and readable storage medium
CN115592133B (en)*2022-12-132023-03-10中车工业研究院(青岛)有限公司Laser sintering scanning method, device and equipment and readable storage medium
CN116833426A (en)*2023-06-292023-10-03鑫精合激光科技发展(北京)有限公司 A laser stereoscopic scanning additive manufacturing method, device and equipment

Also Published As

Publication numberPublication date
CN104985181B (en)2017-07-28

Similar Documents

PublicationPublication DateTitle
CN104985181A (en)Laser scanning method for manufacturing three-dimensional object
CN104550950B (en)For the Laser Scanning of precinct laser fusion
CN103722171B (en)A kind of honeycomb fashion laser scanning method for selective laser sintering
CN112848309B (en)Continuous double-sawtooth-shaped path filling method for deposition molding
CN109094013B (en) A variable filling method for 3D printing based on contour features
Jin et al.A parallel-based path generation method for fused deposition modeling
CN108648220B (en)Three-dimensional printing scanning method, readable storage medium and three-dimensional printing scanning control equipment
US11260578B2 (en)Three-dimensional printing machine and three-dimensional printing method
CN108665493B (en)Three-dimensional printing and scanning method, readable storage medium and three-dimensional printing and scanning control equipment
CN103752823A (en)Triangular mesh type laser scanning method for selective laser sintering
CN107953552B (en)Laser scanning method, readable storage medium and laser scanning control device
CN106077638A (en) A Honeycomb Partition Scanning Method for Additive Manufacturing
CN107876766A (en)Laser sintered scan method
WO2015156413A1 (en)Mold for rubber article, method for producing tire, and tire
CN105773967B (en)A kind of strip-type laser beam scan path planing method
CN106825570B (en)Slice scanning processing method and system for three-dimension object manufacture
CN106493367A (en)A kind of Laser Scanning for selective laser fusing
CN108327251A (en)A kind of FDM Method of printings of subregion filling printing
CN112417646B (en)Scanning path planning method and device based on odd number multiple lasers and three-dimensional object manufacturing equipment
CN109290579A (en)Laser deposition planning parameters of scanning paths method
CN110193603A (en)A kind of selective laser fusing partition method based on length of scanning line optimization
CN105710370B (en)A kind of scan method for being used to successively manufacture three-dimensional body
CN114570943B (en)Selective laser solidification and melting jump layer scanning forming method
CN209381389U (en)A kind of variable cross-section aperture grid support construction
JP2020128099A (en)Method for additionally producing three-dimensional object, irradiation unit, device provided with irradiation unit, and non-transient computer readable storage medium

Legal Events

DateCodeTitleDescription
C06Publication
PB01Publication
C10Entry into substantive examination
SE01Entry into force of request for substantive examination
GR01Patent grant
GR01Patent grant
CP01Change in the name or title of a patent holder

Address after:No. 181, Linyu Road, national high tech Industrial Development Zone, Changsha City, Hunan Province, 410205

Patentee after:Hunan Huashu High Tech Co.,Ltd.

Address before:No. 181, Linyu Road, national high tech Industrial Development Zone, Changsha City, Hunan Province, 410205

Patentee before:HUNAN FARSOON HIGH-TECH Co.,Ltd.

CP01Change in the name or title of a patent holder

[8]ページ先頭

©2009-2025 Movatter.jp