序号 专利名 申请号 申请日 公开(公告)号 公开(公告)日 发明人
1 纳米结构体及其制作方法 CN201380068572.7 2013-12-19 CN104903073A 2015-09-09 远藤惣铭
提供一种纳米结构体,以更加有规律且均匀地形成微细凹凸结构而被视觉辨认为无缝状态,对可见光波长区的光发挥优异的防反射效果。该纳米结构体(1)以多列配置通过基体(2)的表面的凸部或凹部形成的结构体(3)以微细的既定间距(P1)排列的轨道(T1、T2、T3、T4)而成。纳米结构体(1)以无法视觉辨认在既定间距不存在结构体(3)的部分沿轨道的排列方向连续形成的带状部分(接缝)的方式,调整接缝中的、相邻的结构体(3)的中心间距离。
2 无缝塑模的制造方法 CN200980103169.7 2009-01-23 CN101952093A 2011-01-19 铃木胜; 三田村哲理; 前田雅俊
发明的无缝塑模的制造方法具备在套筒形状的塑模上形成热反应型抗蚀剂层的工序和通过使用激光对所述热反应型抗蚀剂层进行曝光显影形成微细的塑模图样的工序,其特征是,所述热反应型抗蚀剂层由在上述激光点径的光强度分布中,具有在规定的光强度以上进行反应的特性的热反应型抗蚀剂所构成。
3 COMPOSITION FOR SOFT MOLD AND SOFT MOLD MANUFACTURED BY USING THE COMPOSITION US15804135 2017-11-06 US20180298134A1 2018-10-18 Minhyuck KANG; Yukihiro MIYAZAWA; Myeonghee KIM; Jungwoo PARK; Atsushi TAKAKUWA; Gugrae JO; Kangsoo HAN
A composition for a soft mold according to an embodiment of the inventive concept may manufacture a soft mold having good durability and release properties by including at least one multifunctional acrylate monomer, at least one photoinitiator, and a siloxane compound, and may improve productivity in the manufacture of an optical member by using the soft mold.
4 Metallographic sample preparation method and metallographic sample mold US14826598 2015-08-14 US10086536B2 2018-10-02 Michael J. Minor
The present disclosure relates generally to method for preparing metallographic samples including the steps of placing a specimen into a mold, inserting an epoxy into the mold, and exposing the mold to an ultraviolet light for a duration of time to create a mounting sample. The mold includes a peripheral wall and a bottom defining a cavity therein. The mold is formed from a material that allows ultraviolet light to penetrate the peripheral wall and bottom into the cavity. The mold includes a material operative to allow an ultraviolet light to penetrate the peripheral wall and the bottom surface into the cavity.
5 Process for reusing thermoplastic matrices US3760055D 1969-08-19 US3760055A 1973-09-18 WHEELEN J; PETROCHKO R; SONIA J; HAYES T
The process for forming at least two matrices from a thermoplastic matrix and a thermoplastic overlay sheet by contacting a thermoplastic matrix blank with a first pattern and applying heat and pressure to make a first matrix; placing the overlay sheet in contact with the first matrix and a second pattern; applying heat and pressure to the overlay sheet and first matrix in contact with the second pattern to form a second matrix.
6 SYSTEMS AND METHODS FOR AN IMPROVED PEEL OPERATION DURING ADDITIVE FABRICATION US16270724 2019-02-08 US20190240968A1 2019-08-08 Steven Thomas; Yoav Reches; Jason Livingston; Jeffery Morin; Caitlin Reyda
According to some aspects, a method of additive fabrication wherein a plurality of layers of material are formed is provided. The method may comprise forming a layer of material in contact with a container, and subsequent to the forming of the layer of material, actively bending the container around at least one fixed point such that the layer of material separates from the container. According to some aspects, an additive fabrication apparatus configured to form a plurality of layers of material is provided. The apparatus may comprise a container, a build platform, one or more force generators, and at least one controller configured to, subsequent to formation of a layer of material in contact with the container, actively bend the container around at least one fixed point via the one or more force generators, such that the layer of material separates from the container.
7 SYSTEMS AND METHODS FOR AN IMPROVED PEEL OPERATION DURING ADDITIVE FABRICATION US14462551 2014-08-18 US20160046080A1 2016-02-18 Steven Thomas; Yoav Reches; Jason Livingston; Jeffery Morin; Caitlin Reyda
According to some aspects, a method of additive fabrication wherein a plurality of layers of material are formed is provided. The method may comprise forming a layer of material in contact with a container, and subsequent to the forming of the layer of material, actively bending the container around at least one fixed point such that the layer of material separates from the container. According to some aspects, an additive fabrication apparatus configured to form a plurality of layers of material is provided. The apparatus may comprise a container, a build platform, one or more force generators, and at least one controller configured to, subsequent to formation of a layer of material in contact with the container, actively bend the container around at least one fixed point via the one or more force generators, such that the layer of material separates from the container.
8 SEAMLESS MOLD MANUFACTURING METHOD US12864212 2009-01-23 US20110027408A1 2011-02-03 Masaru Suzuki; Yoshimichi Mitamura; Masatoshi Maeda
A seamless mold manufacturing method of the invention is a seamless mold manufacturing method having the steps of forming a thermal reaction type resist layer on a sleeve-shaped mold, and exposing using a laser and developing the thermal reaction type resist layer and thereby forming a fine mold pattern, and is characterized in that the thermal reaction type resist layer is comprised of a thermal reaction type resist having a property of reacting in predetermined light intensity or more in a light intensity distribution in a spot diameter of the laser.
9 JPS4840001B1 - JP7180570 1970-08-18 JPS4840001B1 1973-11-28
10 THERMOPLASTISCH VERARBEITBARER VERBUNDWERKSTOFF EP06721917.0 2006-04-20 EP1901912B1 2011-05-25 BASER, Burak
The invention relates to a thermoplastically processable composite material that is composed of (A) at least one nonwoven fabric layer made of thermoplastic fibers and optional reinforcement fibers, and (B) at least one fabric layer or laminated layer made of reinforcement fibers. Layers (A) and (B) are needled together, sewn together, or thermally interconnected.
11 Nanostructure and method of manufacturing the same US14441866 2013-12-19 US09975291B2 2018-05-22 Sohmei Endoh
A nanostructure that is visually recognized as being seamless by its more regularly and more uniformly formed fine concave-convex structure and that exhibits an excellent antireflection effect against light in a visible wavelength range is provided. Such a nanostructure is configured by a number of rows of tracks each including structures, formed by protrusions or depressions on a surface of a substrate, arranged at a predetermined fine pitch. In this nanostructure, a distance between centers of the structures adjacent to each other across a strip-shaped portion (seam) in which portions with no structures within the predetermined pitch are continuously formed in a track arrangement direction is adjusted so as to prevent visual recognition of the seam.
12 SEAMLESS MOLD MANUFACTURING METHOD US14986027 2015-12-31 US20160114503A1 2016-04-28 Masaru Suzuki; Yoshimichi MITAMURA; Masatoshi MAEDA
A seamless mold manufacturing method of the invention is a seamless mold manufacturing method having the steps of forming a thermal reaction type resist layer on a sleeve-shaped mold, and exposing using a laser and developing the thermal reaction type resist layer and thereby forming a fine mold pattern, and is characterized in that the thermal reaction type resist layer is comprised of a thermal reaction type resist having a property of reacting in predetermined light intensity or more in a light intensity distribution in a spot diameter of the laser.
13 METALLOGRAPHIC SAMPLE PREPARATION METHOD AND METALLOGRAPHIC SAMPLE MOLD US14826598 2015-08-14 US20160096291A1 2016-04-07 Michael J. Minor
The present disclosure relates generally to method for preparing metallographic samples including the steps of placing a specimen into a mold, inserting an epoxy into the mold, and exposing the mold to an ultraviolet light for a duration of time to create a mounting sample. The mold includes a peripheral wall and a bottom defining a cavity therein. The mold is formed from a material that allows ultraviolet light to penetrate the peripheral wall and bottom into the cavity. The mold includes a material operative to allow an ultraviolet light to penetrate the peripheral wall and the bottom surface into the cavity.
14 NANOSTRUCTURE AND METHOD OF MANUFACTURING THE SAME US14441866 2013-12-19 US20150306811A1 2015-10-29 Sohmei ENDOH
A nanostructure that is visually recognized as being seamless by its more regularly and more uniformly formed fine concave-convex structure and that exhibits an excellent antireflection effect against light in a visible wavelength range is provided. Such a nanostructure is configured by a number of rows of tracks each including structures, formed by protrusions or depressions on a surface of a substrate, arranged at a predetermined fine pitch. In this nanostructure, a distance between centers of the structures adjacent to each other across a strip-shaped portion (seam) in which portions with no structures within the predetermined pitch are continuously formed in a track arrangement direction is adjusted so as to prevent visual recognition of the seam.
15 ナノ構造体及びその作製方法 JP2012285976 2012-12-27 JP6107131B2 2017-04-05 遠藤 惣銘
16 Mold of the etching apparatus JP2012058912 2012-03-15 JP5457487B2 2014-04-02 勝 鈴木; 哲理 三田村; 雅俊 前田
17 シームレスモールドの製造方法 JP2009550577 2009-01-23 JPWO2009093700A1 2011-05-26 鈴木 勝; 勝 鈴木; 哲理 三田村; 雅俊 前田
本発明のシームレスモールドの製造方法は、スリーブ形状のモールド上に熱反応型レジスト層を形成する工程と、前記熱反応型レジスト層を、レーザーを用いて露光し現像することにより微細モールドパターンを形成する工程と、を具備するシームレスモールドの製造方法であって、前記熱反応型レジスト層は、前記レーザーのスポット径での光強度分布において所定の光強度以上で反応する特性を持つ熱反応型レジストで構成されていることを特徴とする。
18 MANUFACTURING METHOD FOR SEAMLESS MOLD EP09704509.0 2009-01-23 EP2246170B1 2017-03-15 SUZUKI, Masaru; MITAMURA, Yoshimichi; MAEDA, Masatoshi
19 THERMOPLASTISCH VERARBEITBARER VERBUNDWERKSTOFF EP06721917.0 2006-04-20 EP1901912A1 2008-03-26 BASER, Burak
The invention relates to a thermoplastically processable composite material that is composed of (A) at least one nonwoven fabric layer made of thermoplastic fibers and optional reinforcement fibers, and (B) at least one fabric layer or laminated layer made of reinforcement fibers. Layers (A) and (B) are needled together, sewn together, or thermally interconnected.
20 Thermoplastisch verarbeitbarer Verbundwerkstoff EP05008635.4 2005-04-20 EP1714772A1 2006-10-25 Baser, Burak

Die Erfindung betrifft einen thermoplastisch verarbeitbaren Verbundwerkstoff aus

A. mindestens einer Faservliesschicht aus Thermoplasstfasern und gegebenenfalls Verstärkungsfasern und

B. einer Gewebe- oder Gelege- Schicht aus Verstärkungsfasern,

wobei die Schichten A und B zusammengenadelt sind.

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