会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 3. 发明授权
    • Inductive-deductive process design for machined parts
    • 加工零件的感应演绎工艺设计
    • US5485390A
    • 1996-01-16
    • US159968
    • 1993-11-30
    • Steven R. LeClairYoh-han PaoTimothy E. WesthovenHilmi N. Al-KamhawiC. L. Philip ChenAllen G. JacksonAdel C. Chemaly
    • Steven R. LeClairYoh-han PaoTimothy E. WesthovenHilmi N. Al-KamhawiC. L. Philip ChenAllen G. JacksonAdel C. Chemaly
    • G05B19/4097G06F17/50G06F19/00
    • G06F17/50G05B19/4097G05B2219/32101G05B2219/33027G05B2219/34074G05B2219/34075G05B2219/35041G05B2219/35086G05B2219/35218G05B2219/36214G05B2219/36299Y02P90/265Y10S706/904
    • In the design of the process to machine discrete mechanical parts, the sequence of removing material is arrived at to ensure that the resulting part is of the correct geometry and finish, and the process is safe, feasible and accomplished in minimum time. For complex parts, an experienced machinist makes use of inductive methods to relate similar part material, geometries together with interdependencies and their associated machining sequences which have produced quality parts in the past with minimum time expended, or deductive methods to generate a sequence by relating feature attributes (relative size and position) and relations (intersections and common tooling). Of interest is the interaction between the two methods because their coupling enables a self-improving design system to be realized. A feature-based solid modelling software environment provides the elements of a symbolic language for describing a discrete mechanical part in terms of its product and process design. The language is based on the use of features which the designer and/or machinist uses to associate and reason about the part and interaction between the machine, tool, fixture and starting raw stock for the various process design options involving the milling and drilling sequence for removing material. The machinist can either recall from experience, past designs contained in an associative memory, and/or activate generalized rules or constraints in a deductive memory to provide a feasible `good` design. As additional non-geometric features (tolerance, surface finish and material properties) are provided both feature and operation sequencing are refined.
    • 在设计离散机械部件的过程中,达到了去除材料的顺序,以确保所得部件具有正确的几何形状和光洁度,并且该工艺在最短时间内是安全,可行和完成的。 对于复杂的部件,有经验的机械师利用感应方法将相似的部件材料,几何结合在一起以及相关的依赖关系及其相关的加工顺序,这些加工顺序在过去产生了最小时间消耗的质量部分,或者通过相关特征生成序列的演绎方法 属性(相对大小和位置)和关系(交叉点和通用工具)。 感兴趣的是两种方法之间的相互作用,因为它们的耦合使得能够实现自我改进的设计系统。 基于特征的实体建模软件环境提供了用于在其产品和过程设计方面描述离散机械部件的符号语言元素。 该语言基于使用设计者和/或机械师使用的特征来关联和理解零件以及机器,工具,夹具之间的相互作用以及针对涉及铣削和钻削序列的各种工艺设计选项的起始原料 去除材料。 机械师可以回顾经验,包含在联想记忆中的过去设计,和/或激活演绎记忆中的广义规则或约束,以提供可行的“好”设计。 随着额外的非几何特征(公差,表面光洁度和材料性质)的提供,功能和操作顺序被改进。
    • 8. 发明申请
    • VOLUMETRIC CUT PLANNING
    • 体积切割规划
    • WO2013036757A1
    • 2013-03-14
    • PCT/US2012/054140
    • 2012-09-07
    • SIEMENS PRODUCT LIFECYCLE MANAGEMENT SOFTWARE INC.BALKENENDE, TheoSCHEERDER, HansSING, OliverVAN' T ERVE, Tom
    • BALKENENDE, TheoSCHEERDER, HansSING, OliverVAN' T ERVE, Tom
    • G05B19/4069G05B19/4097
    • G05B19/4069G05B19/4097G05B2219/35134G05B2219/35159G05B2219/36268G05B2219/36299Y02P90/265
    • A method comprises the steps: A receiving (505, 510) a three-dimensional (3D) solid part model (304, 402) and an associated 3D solid blank (200, 302, 404); B defining (515) an initial in-process workpiece - in the following denoted by IPW - to be the same as the 3D solid blank; C defining (520) a cut volume in-process feature (202, 204, 306, 308, 408) to be removed from the IPW; D calculating an updated IPW by removing (530) the cut volume in-process feature (202, 204, 306, 308, 408) from the IPW; E if the IPW is not equal to the solid part model (304, 402) o repeating steps C and D; F storing (540) the updated IPW with the removed cut volume in-process feature in (202, 204, 306, 308, 404, 408) the data processing system (100). Advantageous embodiments of this method allow users to easily define CAM operations that reference IPW-aware 3D solid cut volumes as their volumetric containment and don't require manual definition of two-dimensional (2D) boundaries
    • 一种方法包括以下步骤:A接收(505,510)三维(3D)实体部分模型(304,402)和相关联的3D实体空白(200,302,404); B定义(515)初始过程中工件 - 在下面由IPW表示 - 与3D实体空白相同; C定义(520)要从IPW移除的切割体积进程内特征(202,204,306,308,408); D通过从所述IPW去除(530)所述切割体积进程中特征(202,204,306,308,408)来计算更新的IPW; E,如果IPW不等于实体零件模型(304,402),则重复步骤C和D; F在(202,204,306,308,404,408)数据处理系统(100)中存储(540)更新的IPW与删除的切割卷在进程中的特征。 该方法的有利实施例允许用户容易地定义参考IPW感知3D实体切割体积作为其体积容纳并且不需要手动界定二维(2D)边界的CAM操作