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    • 1. 发明授权
    • Die machining method and device by V-CAD data
    • 模具加工方法和装置采用V-CAD数据
    • US07110852B2
    • 2006-09-19
    • US10486659
    • 2002-08-14
    • Hitoshi OhmoriMasahiro AnzaiKiwamu KaseHideo TashiroAkitake Makinouchi
    • Hitoshi OhmoriMasahiro AnzaiKiwamu KaseHideo TashiroAkitake Makinouchi
    • G06F19/00
    • G05B19/4097G05B2219/35097G05B2219/35098G05B2219/35145G05B2219/35167G05B2219/45204Y02P90/265
    • There is prepared V-CAD data obtained by dividing external data 12 consisting of boundary data of an object into rectangular parallelepiped cells 13 having boundary planes orthogonal to each other in accordance with octree division and separating the respective divided cells into internal cells 13a positioned on the inner side of the object and boundary cells 13b including a boundary face, and mold data and mold processing data used to manufacture the object are generated from data of a reference plane which at least partially comes into contact with the object 1 and the V-CAD data. Further, in the mold processing data, a plurality of the processing tools 2 are selected in descending order of a size in accordance with sizes of the internal cells 13a of a processing portion, and the processing tool 2 is moved in a plane of the mold and in the thickness direction, thereby processing the mold. As a result, by using the V-CAD data, the NC processing program for mold processing can be simplified, and the mold processing time can be greatly reduced.
    • 通过将由对象的边界数据构成的外部数据12划分成具有根据八叉树分割彼此正交的边界面的长方体单元13而获得的V-CAD数据,并将各分割单元分离成位于 包括边界面的物体和边界单元13b的内侧以及用于制造物体的模具数据和模具处理数据是从至少部分地与物体1接触的参考平面的数据和V -CAD数据。 此外,在模具处理数据中,按照处理部分的内部单元13a的尺寸的大小降序选择多个处理工具2,并且处理工具2在 模具和厚度方向,从而加工模具。 结果,通过使用V-CAD数据,可以简化用于模具加工的NC加工程序,并且可以大大降低模具加工时间。
    • 2. 发明申请
    • Rapid prototyping method and device using v-cad data
    • 快速原型设计方法和使用v-cad数据的设备
    • US20050015173A1
    • 2005-01-20
    • US10486653
    • 2002-08-14
    • Hitoshi OhmoriMasahiro AnzaiKiwamu KaseHideo TashiroAkitake Makinouchi
    • Hitoshi OhmoriMasahiro AnzaiKiwamu KaseHideo TashiroAkitake Makinouchi
    • G06F19/00
    • B29C64/386B29C64/153B33Y40/00B33Y50/00B33Y50/02B33Y70/00
    • V-CAD data is prepared by dividing external data 12 consisting of boundary data of an object into rectangular parallelepiped cells 13 having boundary planes orthogonal to each other in accordance with octree division and separating the respective divided cells into internal cells 13a positioned on the inner side of the object and boundary cells 13b including a boundary face, and a modeling unit quantity of a prototyping material 7 is changed in accordance with sizes of the internal cell 13a and the boundary cell 13b of a modeling portion. The prototyping material 7 is a resin, lumber powder, a low-fusing-point metal, metal powder, ceramics powder or a mixture of a binder and one of these materials, and its modeling unit quantity is set in such a manner that the modeling unit quantity is smaller than a capacity of a corresponding cell and does not protrude from the boundary plane of the cell. As a result, by using the V-CAD data, a program for rapid prototyping can be simplified, and a model production time can be greatly reduced.
    • 通过将由对象的边界数据构成的外部数据12分割为具有根据八叉树划分彼此正交的边界面的长方体单元13,并将各分割单元分离成位于内侧的内部单元13a来准备V-CAD数据 包括边界面的物体和边界单元13b以及原型材料7的建模单位量根据建模部分的内部单元13a和边界单元13b的尺寸而改变。 原型材料7是树脂,木材粉末,低熔点金属,金属粉末,陶瓷粉末或粘合剂与这些材料之一的混合物,并且其建模单位数量被设定为使模型 单元数量小于对应单元的容量,并且不从单元的边界面突出。 因此,通过使用V-CAD数据,可以简化用于快速成型的程序,并且可以大大降低模型生产时间。
    • 3. 发明授权
    • Rapid prototyping method and apparatus using V-CAD data
    • 使用V-CAD数据的快速成型方法和装置
    • US07406361B2
    • 2008-07-29
    • US10486653
    • 2002-08-14
    • Hitoshi OhmoriMasahiro AnzaiKiwamu KaseHideo TashiroAkitake Makinouchi
    • Hitoshi OhmoriMasahiro AnzaiKiwamu KaseHideo TashiroAkitake Makinouchi
    • G06F19/00
    • B29C64/386B29C64/153B33Y40/00B33Y50/00B33Y50/02B33Y70/00
    • V-CAD data is prepared by dividing external data 12 consisting of boundary data of an object into rectangular parallelepiped cells 13 having boundary planes orthogonal to each other in accordance with octree division and separating the respective divided cells into internal cells 13a positioned on the inner side of the object and boundary cells 13b including a boundary face, and a modeling unit quantity of a prototyping material 7 is changed in accordance with sizes of the internal cell 13a and the boundary cell 13b of a modeling portion. The prototyping material 7 is a resin, lumber powder, a low-fusing-point metal, metal powder, ceramics powder or a mixture of a binder and one of these materials, and its modeling unit quantity is set in such a manner that the modeling unit quantity is smaller than a capacity of a corresponding cell and does not protrude from the boundary plane of the cell. As a result, by using the V-CAD data, a program for rapid prototyping can be simplified, and a model production time can be greatly reduced.
    • 通过将由对象的边界数据构成的外部数据12按照八叉树划分将具有彼此正交的边界面的长方体单元13分割并将各分割单元分离成位于内部的内部单元13a来准备V-CAD数据 根据内部单元13a和建模部分的边界单元13b的尺寸,改变包括边界面的对象边界单元13b和原型材料7的建模单元数量。 原型材料7是树脂,木材粉末,低熔点金属,金属粉末,陶瓷粉末或粘合剂与这些材料之一的混合物,并且其建模单位数量被设定为使模型 单元数量小于对应单元的容量,并且不从单元的边界面突出。 因此,通过使用V-CAD数据,可以简化用于快速成型的程序,并且可以大大降低模型生产时间。
    • 6. 发明授权
    • Storage method of substantial data integrating shape and physical properties
    • 存储大量数据整合形状和物理性质的方法
    • US07088363B2
    • 2006-08-08
    • US10058905
    • 2002-01-30
    • Kiwamu KaseHideo TashiroRyutaro HimenoAkitake Makinouchi
    • Kiwamu KaseHideo TashiroRyutaro HimenoAkitake Makinouchi
    • G06T17/00
    • G06T17/005G06F17/5018
    • A method of storing substantial data integrating shape and physical properties comprising (A) inputting external data 12 consisting of boundary data of an object 1, (B) dividing, by modified Octree division, the external data into cubical cells 13 which boundary surfaces are orthogonal to each other, and (C) storing the values of various physical properties for each of the cells. Furthermore, in step (B), each of the divided cells 13 is classified to non-boundary cells 13a located in the interior of the object or in a region outside of the object, and boundary cells 13b including boundary surfaces. Thereby, substantial data integrating shape and physical properties can be stored in small storage capacity, thus enabling the integration of CAD and simulation.
    • 一种存储整合形状和物理性质的实质数据的方法,包括(A)输入由对象1的边界数据组成的外部数据12,(B)通过修改的八叉树划分将外部数据划分成立方单元13,该边界表面正交 并且(C)存储每个单元的各种物理性质的值。 此外,在步骤(B)中,将分割单元13分类为位于物体内部或物体外部的区域的非边界单元13a以及包含边界面的边界单元13b。 因此,整合形状和物理性质的实质数据可以以小的存储容量存储,从而实现CAD和仿真的集成。
    • 7. 发明授权
    • Method for combining partially measured data
    • 组合部分测量数据的方法
    • US06611791B1
    • 2003-08-26
    • US09572340
    • 2000-05-18
    • Kiwamu KaseHideo Tashiro
    • Kiwamu KaseHideo Tashiro
    • G06F1500
    • G01B11/24
    • (A) The surface shape of an object (1) is measured by varying the position and/or direction of measurement, and a plurality of sets of partially measured data (2) including the common parts (2a) are acquired, (B) for all the partially measured data (2), the overlapped ranges (3a) of the adjacent common parts (2a) are determined within the measurement error ranges (3), (C) when there are no superposition ranges (3a), it is decided that a combination is not possible, and (D) when there are overlapped ranges (3a), the common parts of each set of partially measured data are combined within the ranges. Thus, combined data can be created at a high accuracy from a plurality of sets of partially measured data based on a small number of repeated calculations.
    • (A)通过改变测量的位置和/或方向来测量物体(1)的表面形状,并且获取包括公共部分(2a)的多组部分测量数据(2),(B) 对于所有部分测量数据(2),当不存在叠加范围(3a)时,相邻公共部分(2a)的重叠范围(3a)在测量误差范围(3),(C)内确定, 决定组合是不可能的,(D)当重叠范围(3a)时,每组部分测量数据的公共部分在范围内组合。 因此,基于少量的重复计算,可以从多组部分测量数据以高精度创建组合数据。
    • 8. 发明授权
    • Substrate for biomolecule microarray, biomolecule microarray, device and method of promoting interaction, and method of detecting interaction
    • 用于生物分子微阵列的基质,生物分子微阵列,促进相互作用的装置和方法以及检测相互作用的方法
    • US07541195B2
    • 2009-06-02
    • US10560584
    • 2004-06-09
    • Hideo TashiroYasumitsu KondohTokuji KitsunaiSatoru Hatakeyama
    • Hideo TashiroYasumitsu KondohTokuji KitsunaiSatoru Hatakeyama
    • G01N33/543
    • G01N21/6452B01J19/0046B01J2219/00527B01J2219/00605B01J2219/0061B01J2219/00612B01J2219/00621B01J2219/00626B01J2219/0063B01J2219/00637B01J2219/00653B01J2219/0072B01J2219/00722B01J2219/00725B01L3/5085C40B40/06C40B40/10G01N21/253G01N21/6428G01N33/5438G01N2021/6482
    • The substrate for biomolecule microarray has one or more spots for immobilizing a biomolecule. The spot for immobilizing a biomolecule protrudes from the surface of the substrate and has a flat surface for spotting on the top thereof, at least the surface of the substrate around the protruding spot part, the lateral surface of the protruding spot part and the flat surface for spotting are comprised of an electrically conductive substance. Alternatively, the spot for immobilizing a biomolecule protrudes from the surface of the substrate and has a flat surface for spotting on the top thereof, the protruding spot parts adjacent each other border through the lateral surface of the protruding spot part, and at least the lateral surface of the protruding spot part and the flat surface for spotting are comprised of an electrically conductive substance. The biomolecule microarray comprises the above substrate and a biomolecule and the biomolecule is immobilized on at least the flat surface for spotting on the substrate. The device of promoting interaction between biomolecules comprises a biomolecule microarray having one or more biomolecule-immobilized spots on a substrate, an electrode provided so as to face the surface having the biomolecule-immobilized spots of the microarray, and a power source for applying an electric field between the microarray and the electrode. The method of promoting interaction between biomolecules employing the above device. The method of detecting interaction between biomolecules. Provided are a substrate having biomolecule immobilization regions of prescribed shape on a biomolecule microarray, and means by which the interaction of biomolecules is rapidly conducted, the interaction of trace quantities of sample is promoted, and the interaction is detected and analyzed rapidly and with high sensitivity.
    • 用于生物分子微阵列的底物具有用于固定生物分子的一个或多个斑点。 用于固定生物分子的点从基板的表面突出,并且具有用于在其顶部上点样的平坦表面,至少在突出的点部分周围的基板的表面,突出的点部分的侧表面和平坦表面 用于点样由导电物质组成。 或者,用于固定生物分子的斑点从基板的表面突出,并且具有用于在其顶部上斑点的平坦表面,突出的点部分彼此相邻,通过突出的斑点部分的侧表面,并且至少横向 突出点部分的表面和用于点样的平坦表面由导电物质组成。 生物分子微阵列包括上述底物和生物分子,生物分子至少固定在平坦表面上以便在基底上进行点样。 促进生物分子之间的相互作用的装置包括在基底上具有一个或多个生物分子固定斑点的生物分子微阵列,设置成面对具有微阵列的生物分子固定点的表面的电极,以及用于施加电 微阵列和电极之间的场。 促进使用上述装置的生物分子之间相互作用的方法。 检测生物分子之间相互作用的方法。 提供了一种在生物分子微阵列上具有规定形状的生物分子固定区的底物,以及快速进行生物分子相互作用的手段,促进了微量样品的相互作用,并快速,高灵敏度地检测和分析了相互作用 。