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公开(公告)号：US12083745B2
公开(公告)日：2024-09-10
申请号：US17636577
申请日：2021-02-02
Applicant: QINGDAO UNIVERSITY OF TECHNOLOGY , QINGDAO 5D INTELLIGENT ADDITIVE MANUFACTURING TECHNOLOGY CO., LTD.
Inventor： Hongbo Lan , Pengfei Guo , Xin Lin , Guangming Zhang , Xiaoyang Zhu , Jiawei Zhao , Quan Xu , Jianjun Yang
IPC: B29C64/314 , B29C64/118 , B29C64/209 , B29C64/40 , B33Y10/00 , B33Y30/00 , B33Y40/00
CPC classification number: B29C64/314 , B29C64/118 , B29C64/209 , B29C64/40 , B33Y10/00 , B33Y30/00 , B33Y40/00
Abstract: A 3D printing device and method for integrated manufacturing of functionally gradient materials and three-dimensional structures. The device includes an active and passive mixing and printing module and a constraining and sacrificial layer printing module. An input end of the active mixing module connects to multiple anti-settling feeding modules, and an output end of the active mixing module connects to the passive mixing and printing module. The passive mixing and printing module and the constraining and sacrificial layer printing module are mounted on one side of an XYZ three-axis module. The constraining and sacrificial layer printing module connects to a constraining and sacrificial layer feeding module and prints and forms a functionally gradient three-dimensional structure. The 3D printing device and method of the invention can realize integrated manufacturing of continuous functionally gradient materials and complex three-dimensional structures, and have the advantages of high printing efficiency and low cost.
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2.发明公开公开(公告)号：US20230158745A1
公开(公告)日：2023-05-25
申请号：US17636577
申请日：2021-02-02
Applicant: QINGDAO UNIVERSITY OF TECHNOLOGY , QINGDAO 5D INTELLIGENT ADDITIVE MANUFACTURING TECHNOLOGY CO., LTD.
Inventor： Hongbo LAN , Pengfei GUO , Xin LIN , Guangming ZHANG , Xiaoyang ZHU , Jiawei ZHAO , Quan XU , Jianjun YANG
IPC: B29C64/314 , B29C64/118 , B29C64/209 , B29C64/40 , B33Y10/00 , B33Y30/00 , B33Y40/00
CPC classification number: B29C64/314 , B29C64/118 , B29C64/209 , B29C64/40 , B33Y10/00 , B33Y30/00 , B33Y40/00
Abstract: A 3D printing device and method for integrated manufacturing of functionally gradient materials and three-dimensional structures. The device includes an active and passive mixing and printing module and a constraining and sacrificial layer printing module. An input end of the active mixing module connects to multiple anti-settling feeding modules, and an output end of the active mixing module connects to the passive mixing and printing module. The passive mixing and printing module and the constraining and sacrificial layer printing module are mounted on one side of an XYZ three-axis module. The constraining and sacrificial layer printing module connects to a constraining and sacrificial layer feeding module and prints and forms a functionally gradient three-dimensional structure. The 3D printing device and method of the invention can realize integrated manufacturing of continuous functionally gradient materials and complex three-dimensional structures, and have the advantages of high printing efficiency and low cost.
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Patent Agency Ranking
3.发明公开公开(公告)号：US20230226760A1
公开(公告)日：2023-07-20
申请号：US17636780
申请日：2021-02-02
Applicant: QINGDAO UNIVERSITY OF TECHNOLOGY , QINGDAO 5D INTELLIGENT ADDITIVE MANUFACTURING TECHNOLOGY CO., LTD.
Inventor： Hongbo LAN , Guangming ZHANG , Xiaoyang ZHU , Jiankang HE , Dichen LI , Quan XU , Jiawei ZHAO
IPC: B29C64/209 , B29C64/106
CPC classification number: B29C64/209 , B29C64/106 , B33Y10/00
Abstract: A micro-nano 3D printing device with multi-nozzles jet deposition driven by electric field of single flat plate electrode, including: a printing head module group, printing nozzle module group of any material, printing substrate of any material, flat plate electrode, printing platform, signal generator, high-voltage power supply, feeding module group, precision back pressure control module group, XYZ three-axis precision motion platform, positive pressure air circuit system, observation and positioning module, UV curing module, laser rangefinder, base, connection frame, first adjustable bracket, second adjustable bracket, and a third adjustable bracket; the device realizes high throughput micro-nano 3D printing of jet deposition, including different configuration implementation schemes like multi-materials with multi-nozzles, single material with multi-nozzles and single material with multi-nozzles array, improves the printing efficiency, and realizes multi-materials macro/micro/nano printing, high-aspect-ratio microstructure efficient manufacturing, simultaneous printing of heterogeneous materials, efficient manufacturing of large area micro-nano array structure and parallel manufacturing of 3D printing.
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公开(公告)号：US11551833B2
公开(公告)日：2023-01-10
申请号：US16771392
申请日：2020-01-17
Applicant: QINGDAO UNIVERSITY OF TECHNOLOGY , QINGDAO 5D INTELLIGENT ADDITIVE MANUFACTURING TECHNOLOGY CO., LTD.
Inventor： Hongbo Lan , Xiaoyang Zhu , Quan Xu , Jiawei Zhao , Mingyang Liu
Abstract: A manufacturing method of an embedded metal mesh flexible transparent electrode and application thereof; the method includes: directly printing a metal mesh transparent electrode on a rigid substrate by using an electric-field-driven jet deposition micro-nano 3D printing technology; performing conductive treatment on a printed metal mesh structure through a sintering process to realize conductivity of the metal mesh; respectively heating a flexible transparent substrate and the rigid substrate to set temperatures; completely embedding the metal mesh structure on the rigid substrate into the flexible transparent substrate through a thermal imprinting process; and separating the metal mesh completely embedded into the flexible transparent substrate from the rigid substrate to obtain the embedded metal mesh flexible transparent electrode. The mass production of the large-size embedded metal mesh flexible transparent electrode with low cost and high throughput by combining the electric-field-driven jet deposition micro-nano 3D printing technology with the roll-to-plane thermal imprinting technology.
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公开(公告)号：US11577480B2
公开(公告)日：2023-02-14
申请号：US16930387
申请日：2020-07-16
Applicant: QINGDAO UNIVERSITY OF TECHNOLOGY , QINGDAO 5D INTELLIGENT ADDITIVE MANUFACTURING TECHNOLOGY CO., LTD.
Inventor： Hongbo Lan , Quan Xu , Jiawe Zhao , Xiaoyang Zhu
IPC: B29D11/00 , B33Y10/00 , B29C64/10 , B29C33/38 , B29C59/02 , C25D1/10 , F21V8/00 , G03F7/00 , B33Y50/02 , B29C64/393
Abstract: A method and apparatus for mass production of AR diffractive waveguides. Low-cost mass production of large-area AR diffractive waveguides (slanted surface-relief gratings) of any shape. Uses two-photon polymerization micro-nano 3D printing to realize manufacturing of slanted grating large-area masters of any shape (thereby solving the problem about manufacturing of slanted grating masters of any shape on the one hand, realizing direct manufacturing of large-size wafer-level masters on the other hand, and also having the advantages of low manufacturing cost and high production efficiency). Composite nanoimprint lithography technology is employed (in combination with the peculiar imprint technique and the composite soft mold suitable for slanted gratings) to solve the problem that a large-slanting-angle large-slot-depth slanted grating cannot be demolded and thus cannot be manufactured, and realize the manufacturing of the slanted grating without constraints (geometric shape and size).
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公开(公告)号：US20210407708A1
公开(公告)日：2021-12-30
申请号：US16771392
申请日：2020-01-17
Applicant: QINGDAO UNIVERSITY OF TECHNOLOGY , QINGDAO 5D INTELLIGENT ADDITIVE MANUFACTURING TECHNOLOGY CO., LTD.
Inventor： Hongbo LAN , Xiaoyang ZHU , Quan XU , Jiawei ZHAO , Mingyang LIU
Abstract: A manufacturing method of an embedded metal mesh flexible transparent electrode and application thereof; the method includes: directly printing a metal mesh transparent electrode on a rigid substrate by using an electric-field-driven jet deposition micro-nano 3D printing technology; performing conductive treatment on a printed metal mesh structure through a sintering process to realize conductivity of the metal mesh; respectively heating a flexible transparent substrate and the rigid substrate to set temperatures; completely embedding the metal mesh structure on the rigid substrate into the flexible transparent substrate through a thermal imprinting process; and separating the metal mesh completely embedded into the flexible transparent substrate from the rigid substrate to obtain the embedded metal mesh flexible transparent electrode. The mass production of the large-size embedded metal mesh flexible transparent electrode with low cost and high throughput by combining the electric-field-driven jet deposition micro-nano 3D printing technology with the roll-to-plane thermal imprinting technology.
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公开(公告)号：US20210197507A1
公开(公告)日：2021-07-01
申请号：US16930387
申请日：2020-07-16
Applicant: QINGDAO UNIVERSITY OF TECHNOLOGY , QINGDAO 5D INTELLIGENT ADDITIVE MANUFACTURING TECHNOLOGY CO., LTD.
Inventor： Hongbo LAN , Quan XU , Jiawei ZHAO , Xiaoyang ZHU
IPC: B29D11/00 , F21V8/00 , B29C33/38 , C25D1/10 , G03F7/00 , B29C64/10 , B33Y10/00 , B29C64/393 , B29C59/02 , B33Y50/02
Abstract: A method and apparatus for mass production of AR diffractive waveguides. Low-cost mass production of large-area AR diffractive waveguides (slanted surface-relief gratings) of any shape. Uses two-photon polymerization micro-nano 3D printing to realize manufacturing of slanted grating large-area masters of any shape (thereby solving the problem about manufacturing of slanted grating masters of any shape on the one hand, realizing direct manufacturing of large-size wafer-level masters on the other hand, and also having the advantages of low manufacturing cost and high production efficiency). Composite nanoimprint lithography technology is employed (in combination with the peculiar imprint technique and the composite soft mold suitable for slanted gratings) to solve the problem that a large-slanting-angle large-slot-depth slanted grating cannot be demolded and thus cannot be manufactured, and realize the manufacturing of the slanted grating without constraints (geometric shape and size).
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