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    • 3. 发明申请
    • Lens surface cutting apparatus and lens surface cutting method for spectacle lens, and spectacle lens
    • 镜片切割装置及透镜表面切割方法眼镜镜片及眼镜镜片
    • US20090047874A1
    • 2009-02-19
    • US11665731
    • 2006-12-20
    • Hideo ToriumiShigeru Takizawa
    • Hideo ToriumiShigeru Takizawa
    • B24B1/00G05B15/00G02C13/00
    • B24B13/06B23B5/36B24B13/046B28D1/30Y10T82/10Y10T82/2502
    • A lens surface cutting method for a spectacle lens includes the steps of calculating the mean curvature of a lens surface (5) to be machined, calculating a helical machining path (4) that matches the mean curvature, and cutting the lens surface (5) to be machined by a cutting means. The helical machining path (4) calculated by the helical machining path calculating step is a path in which helix spacings P (=P1, P2, . . . Pn) on the lens surface (5) to be machined are equidistant and a helix spacing d (=d1, d2, . . . dn) on an X-Y projection plane 100 increases continuously from a lens outer periphery toward a center. The cutting means cuts the lens surface (5) to be machined from the outer periphery toward the center along the helical machining path (4). Thus, a spectacle lens having a lens surface with a surface accuracy that is almost uniform throughout an entire surface can be obtained.
    • 眼镜透镜表面切割方法包括计算要加工的透镜表面(5)的平均曲率,计算与平均曲率相匹配的螺旋加工路径(4)和切割透镜表面(5)的步骤, 由切割装置加工。 由螺旋加工路径计算步骤计算的螺旋加工路径(4)是要加工的透镜表面(5)上的螺旋间距P(= P1,P2 ... Pn)等距的路径,螺旋加工路径 XY投影平面100上的d(= d1,d2,...,dn)从透镜外周向中心连续地增加。 切割装置沿着螺旋加工路径(4)从外周向中心切割待加工的透镜表面(5)。 因此,可以获得具有在整个表面上几乎均匀的表面精度的透镜表面的眼镜镜片。
    • 4. 发明申请
    • METHOD OF MANUFACTURING LENS CASTING MOLD
    • 制造镜片铸造模具的方法
    • US20110304064A1
    • 2011-12-15
    • US12677699
    • 2008-11-25
    • Noriaki TaguchiShigeru TakizawaHidetaka Shimizu
    • Noriaki TaguchiShigeru TakizawaHidetaka Shimizu
    • B29C33/38
    • C03B23/0026B29L2011/0016B29L2031/757C03B29/06
    • The present invention relates to a method of manufacturing a lens casting mold by introducing a forming mold, with a forming surface on which is positioned a glass material being formed, into a continuous heating furnace and conducting thermal treatment while conveying the forming mold to form an upper surface of the glass material being formed into a shape of a molding surface for forming a surface comprising a progressive surface. The method of manufacturing a lens casting mold of the present invention comprises controlling a temperature of the continuous heating furnace so that the continuous heating furnace comprises a temperature rising region having a temperature distribution such that the temperature rises in a conveyance direction of the forming mold; utilizing a forming mold having a curvature distribution on the forming surface as the forming mold; and conveying the forming mold in the temperature rising region so that a portion with the largest curvature on the forming surface is comprised in a portion on a side of the conveyance direction as divided in two by an imaginary line, the imaginary line running orthogonally to the conveyance direction of the forming mold and passing through a geometric center of the forming surface.
    • 本发明涉及一种制造透镜铸造模具的方法,该方法通过将成形模具(其上形成有玻璃材料的成形表面)引入连续加热炉中并在输送成形模具的同时进行热处理, 玻璃材料的上表面被形成为用于形成包括渐进表面的表面的成型表面的形状。 制造本发明的透镜铸造模具的方法包括控制连续加热炉的温度,使得连续加热炉包括具有温度分布的升温区域,使得温度在成形模具的输送方向上升高; 利用在成形表面上具有曲率分布的成型模具作为成形模具; 并且在升温区域中输送成型模具,使得在成形表面上具有最大曲率的部分被包括在沿着输送方向的一侧的部分中,被分成两条虚线,假想线垂直于 成形模具的输送方向并穿过成形表面的几何中心。
    • 5. 发明申请
    • METHOD OF MANUFACTURING LENS CASTING MOLD AND METHOD OF MANUFACTURING EYEGLASS LENS
    • US20110163466A1
    • 2011-07-07
    • US12995385
    • 2010-02-26
    • Noriaki TaguchiShigeru Takizawa
    • Noriaki TaguchiShigeru Takizawa
    • B29C33/38B29D11/00
    • C03B23/0026B29C39/38B29L2011/0033C03B29/06Y02P40/57
    • The present invention relates to a method of manufacturing a lens casting mold in which an upper surface of a glass material being formed is formed into a shape of a molding surface for forming a surface comprising a progressive surface or a progressive element by using a continuous heating furnace. As the forming mold, a forming mold having a curvature distribution on the forming surface is utilized. In one aspect, a temperature of the continuous heating furnace is controlled so that the continuous heating furnace comprises a temperature rising region having a temperature distribution such that the temperature rises in a conveyance direction of the forming mold, and a separation distance between the forming surface of the forming mold and a lower surface of the glass material being formed is specified in two or more spots before introduction to the continuous heating furnace. The forming mold is conveyed in the temperature rising region so that a portion with the greatest separation distance among the specified separation distances is comprised in a portion on a side of the conveyance direction as divided in two by a virtual line, the virtual line running orthogonally to the conveyance direction of the forming mold and passing through a geometric center of the forming surface. In another aspect, a forming mold position control region is provided in the continuous heating furnace, a temperature is directly or indirectly measured at multiple measurement points on the forming surface in the forming mold position control region, and the forming mold is conveyed so that a portion on the forming surface of greatest curvature is present in a high temperature portion that has been determined based on the measurement result. A virtual line A passing through a geometric center and a maximum temperature point among the multiple measurement points is specified, and then a portion containing the maximum temperature point as divided in two by a virtual line B running orthogonally to the virtual line A and passing through the geometric center is determined as the high temperature portion.
    • 6. 发明申请
    • METHOD OF MANUFACTURING LENS CASTING MOLD AND METHOD OF MANUFACTURING EYEGLASS LENS
    • 制造镜片铸造模具的方法和制造眼镜镜片的方法
    • US20110127685A1
    • 2011-06-02
    • US12995363
    • 2010-02-26
    • Noriaki TaguchiShigeru Takizawa
    • Noriaki TaguchiShigeru Takizawa
    • B29D11/00C03B23/025
    • B29C33/3842B29L2011/0016C03B23/0026C03B29/06Y02P40/57
    • An aspect of the present invention relates to a method of manufacturing a lens casting mold by introducing a forming mold, with a forming surface on which a glass material being formed is positioned, into a continuous heating furnace and conducting thermal treatment while conveying the forming mold in the furnace to form an upper surface of the glass material being formed by bring a lower surface of the glass material being formed into tight contact with the forming surface. The aspect comprises utilizing a forming mold having a curvature distribution on the forming surface as the forming mold; specifying an average curvature in a direction running from a geometric center toward a perimeter portion of the forming surface of the forming mold in two or more different directions before introduction to the furnace; directly or indirectly measuring a temperature at two or more measurement points on the forming surface of the forming mold in one or two or more regions within the furnace and specifying a direction running from the geometric center of the forming surface toward a point that is of maximum temperature among the two or more measurement points as a maximum temperature direction; continuously or intermittently repeating approximately full circle rotation in a horizontal direction of the forming mold during passage through the furnace; and in the region in which the maximum temperature direction has been specified, the rotation is conducted so that an angular rotation speed of the forming mold decreases as the average curvature in an nth direction passing through the maximum temperature direction increases, with n denoting an integer specifying each direction among the directions of which average curvatures have been specified without overlapping of the number n.
    • 本发明的一个方面涉及一种制造透镜铸造模具的方法,该方法通过将成型模具和成型表面(其上形成有玻璃材料的位置)引入连续加热炉中并在输送成形模具的同时进行热处理 在炉中形成通过使玻璃材料的下表面与成形表面紧密接触而形成的玻璃材料的上表面。 该方面包括利用在成形表面上具有曲率分布的成型模具作为成型模具; 指定在引入炉子之前沿两个或更多个不同方向从成形模具的成形表面的几何中心向周边部分延伸的方向上的平均曲率; 直接或间接地测量炉内一个或两个或更多个区域中成形模具的成形表面上两个或更多个测量点的温度,并指定从成形表面的几何中心向最大点 两个以上的测量点之间的温度作为最高温度方向; 在通过炉子期间连续地或间歇地重复在成形模具的水平方向上大致全圈的旋转; 并且在规定了最高温度方向的区域中,进行旋转,使得成形模具的角度旋转速度随着通过最大温度方向的第n个方向的平均曲率而增大,n表示整数 指定在没有数量n重叠的情况下指定了平均曲率的方向之间的每个方向。
    • 8. 发明申请
    • MANUFACTURING METHOD AND MANUFACTURING DEVICE OF FORMED ARTICLE, AND MANUFACTURING METHOD OF EYEGLASS LENS
    • 成形制品的制造方法和制造装置以及眼镜镜片的制造方法
    • US20120086138A1
    • 2012-04-12
    • US13133463
    • 2010-06-23
    • Noriaki TaguchiShigeru Takizawa
    • Noriaki TaguchiShigeru Takizawa
    • B29D11/00B29C51/18B29C51/00
    • C03B23/0258B29C35/02B29C35/08B29D11/00009C03B23/0026C03B23/0086C03B23/0252C03B29/08Y02P40/57
    • An aspect of the present invention relates to a method of manufacturing a formed article forming an upper surface of a forming material comprised of a thermosoftening substance into a desired shape by heating the forming material in a state where the forming material is positioned on a forming surface of a forming mold to a temperature permitting deformation of the forming material to bring a lower surface of the forming material into tight contact with the forming surface. The heating is conducted by positioning the forming mold, on which the forming material has been positioned, beneath heat source(s) radiating radiant heat in a state where a plate-shaped member the outermost surface of which is comprised of a metal material is positioned above the upper surface of the forming material. Another aspect of the present invention relates to a method of manufacturing a formed article forming an upper surface of a forming material comprised of a thermosoftening substance into a desired shape by heating the forming material within a heating furnace in a state where the forming material is positioned on a forming surface of a forming mold to a temperature permitting deformation of the forming material to bring a lower surface of the forming material into tight contact with the forming surface. The forming is conducted while an exposed portion on the forming surface side of the forming mold on which the forming material has been positioned is covered with a covering member, and at least a portion of the covering member comprises a metal material layer.
    • 本发明的一个方面涉及通过在形成材料位于成形表面上的状态下加热成形材料来制造成形制品的方法,该成形制品通过将热软化物质构成的成形材料的上表面形成为所需形状 成型模具的温度允许成形材料变形以使成形材料的下表面与成形表面紧密接触。 通过将成形材料定位在其上的成型模具在其最外表面由金属材料构成的板状构件定位的状态下放置辐射热的热源进行加热 在成形材料的上表面之上。 本发明的另一方面涉及一种通过在成形材料定位的状态下加热加热炉内的成形材料来制造形成由热软化物质构成的成形材料的上表面形成所需形状的成形制品的方法 在成形模具的成形表面上形成允许成形材料变形以使成形材料的下表面与成形表面紧密接触的温度。 在形成有成形材料的成形模具的成形面侧的露出部分被覆盖部件覆盖的情况下进行成型,覆盖部件的至少一部分由金属材料层构成。
    • 9. 发明授权
    • Lens surface cutting apparatus and lens surface cutting method for spectacle lens, and spectacle lens
    • 镜片切割装置及透镜表面切割方法眼镜镜片及眼镜镜片
    • US07861626B2
    • 2011-01-04
    • US11665731
    • 2006-12-20
    • Hideo ToriumiShigeru Takizawa
    • Hideo ToriumiShigeru Takizawa
    • B23B1/00B23B7/00
    • B24B13/06B23B5/36B24B13/046B28D1/30Y10T82/10Y10T82/2502
    • A lens surface cutting method for a spectacle lens includes the steps of calculating the mean curvature of a lens surface (5) to be machined, calculating a helical machining path (4) that matches the mean curvature, and cutting the lens surface (5) to be machined by a cutting means. The helical machining path (4) calculated by the helical machining path calculating step is a path in which helix spacings P (=P1, P2, . . . Pn) on the lens surface (5) to be machined are equidistant and a helix spacing d (=d1, d2, . . . dn) on an X-Y projection plane 100 increases continuously from a lens outer periphery toward a center. The cutting means cuts the lens surface (5) to be machined from the outer periphery toward the center along the helical machining path (4). Thus, a spectacle lens having a lens surface with a surface accuracy that is almost uniform throughout an entire surface can be obtained.
    • 眼镜透镜表面切割方法包括计算要加工的透镜表面(5)的平均曲率,计算与平均曲率相匹配的螺旋加工路径(4)和切割透镜表面(5)的步骤, 由切割装置加工。 由螺旋加工路径计算步骤计算的螺旋加工路径(4)是要加工的透镜表面(5)上的螺旋间距P(= P1,P2 ... Pn)等距的路径,螺旋加工路径 XY投影平面100上的d(= d1,d2,...,dn)从透镜外周向中心连续地增加。 切割装置沿着螺旋加工路径(4)从外周向中心切割待加工的透镜表面(5)。 因此,可以获得具有在整个表面上几乎均匀的表面精度的透镜表面的眼镜镜片。