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    • 3. 发明专利
    • Creation method of bonding model
    • 粘接模型的创建方法
    • JP2012022961A
    • 2012-02-02
    • JP2010161463
    • 2010-07-16
    • Toyota Motor Corpトヨタ自動車株式会社
    • HARADA TAKESHIFUKUNAGA KOJI
    • H01M8/04H01M8/10
    • Y02E60/521
    • PROBLEM TO BE SOLVED: To provide a creation method of creating a bonding model further improved in reproduction accuracy.SOLUTION: A creation method of a bonding model in which interfaces of adjacent components are bonded mutually with each other includes: simulating the bond between the components by arranging spring members 34e-34h which have different elasticities according to bonding strengths between nodes 32a and 32b which are provided on the adjacent components, respectively; and simulating detachment of the bond between the components by removing the spring members 34g and 34h.
    • 要解决的问题:提供一种在再现精度方面进一步提高接合模型的创建方法。 解决方案:相邻部件的界面彼此相互接合的接合模型的创建方法包括:通过根据节点32a之间的结合强度设置具有不同弹性的弹簧部件34e-34h来模拟部件之间的接合 和32b,分别设置在相邻部件上; 并且通过去除弹簧构件34g和34h来模拟部件之间的接合的分离。 版权所有(C)2012,JPO&INPIT
    • 4. 发明专利
    • Fuel cell simulation model forming device
    • 燃料电池模拟成型装置
    • JP2010153354A
    • 2010-07-08
    • JP2009162417
    • 2009-07-09
    • Toyota Motor Corpトヨタ自動車株式会社
    • HARADA TAKESHITAKEMOTO TAKESHI
    • H01M8/04G06F17/50G06F19/00
    • Y02E60/50
    • PROBLEM TO BE SOLVED: To form a model for simulation of a fuel cell based on information on a base material layer, a water-repellent layer, and a catalyst layer. SOLUTION: The fuel cell simulation model forming device 100 is equipped with a base material layer information reading part 10 to read information concerning respective layers, a water-repellent layer information reading part 14, a catalyst layer information reading part 18, a base material layer site data acquisition part 12 which acquires data concerning a specific layer site out of read information on respective layers, a water-repellent layer site data acquisition part 16, a catalyst layer site data acquisition part 20, a site data lamination part 22 to laminate the acquired respective layers site data, and a simulation model forming part 24 to form an electrode model for simulation based on the laminated site data. COPYRIGHT: (C)2010,JPO&INPIT
    • 要解决的问题:基于关于基材层,防水层和催化剂层的信息形成燃料电池的模拟模型。 解决方案:燃料电池模拟模型形成装置100配备有基材层信息读取部10,以读取有关各层的信息,防水层信息读取部14,催化剂层信息读取部18, 基材层位置数据取得部12,从各层的读取信息中取得与特定层位置有关的数据,防水层位置数据取得部16,催化剂层位置数据取得部20,位置数据层叠部22 层叠所获取的各层位置数据,以及模拟模型形成部24,以形成基于层叠站点数据的模拟用电极模型。 版权所有(C)2010,JPO&INPIT
    • 5. 发明专利
    • Finite element analyzer
    • 有限元分析仪
    • JP2009086807A
    • 2009-04-23
    • JP2007253107
    • 2007-09-28
    • Toyota Motor Corpトヨタ自動車株式会社
    • HARADA TAKESHITONAI MAKOTOSUZUKI KATSUYUKI
    • G06F17/50
    • PROBLEM TO BE SOLVED: To apply an overlaying mesh method concerning an analysis object having a nonlinear solid problem in a finite element analyzer.
      SOLUTION: The finite element analyzer 10 using the overlaying mesh method includes: a CPU 12; an input part 14; an output part 16; and a storage part 18. The CPU 12 includes: a global mesh setting part 20 for setting global mesh being comparatively coarse mesh in a whole region being the whole analysis object region; a local mesh setting part 22 for setting local mesh being the mesh with sufficient fineness in the partial region of the analysis object region; and an overlaying mesh method discretizing part 24 for generating a discretization equilibrium equation which describes relation among a rigid matrix, a node displacement vector, and a load force vector concerning the analysis object having the nonlinear solid problem under the condition of the overlaying mesh method.
      COPYRIGHT: (C)2009,JPO&INPIT
    • 要解决的问题:在有限元分析仪中应用关于具有非线性固体问题的分析对象的覆盖网格方法。 解决方案:使用覆盖网格法的有限元分析器10包括:CPU 12; 输入部14; 输出部16; CPU12包括:全局网格设置部分20,用于在整个分析对象区域的整个区域中设置全局网格为比较粗糙的网格; 局部网格设置部分22,用于在分析对象区域的部分区域中设置具有足够细度的网格的局部网格; 以及叠加网格法离散化部分24,用于生成离散平衡方程,该离散平衡方程描述了在叠加网格方法的条件下关于具有非线性固体问题的分析对象的刚性矩阵,节点位移矢量和载荷力矢量之间的关系。 版权所有(C)2009,JPO&INPIT
    • 6. 发明专利
    • 拡散層の撓み量、および、面圧値の測定方法
    • 测量扩散层和表面压力值偏差的方法
    • JP2014206395A
    • 2014-10-30
    • JP2013082603
    • 2013-04-11
    • トヨタ自動車株式会社Toyota Motor Corp
    • IDA ATSUMINAKANISHI JUNJIHARADA TAKESHI
    • G01N3/00H01M4/86H01M8/04
    • Y02E60/50
    • 【課題】拡散層の撓み量や面圧値を精度良く算出できる技術を提供する。【解決手段】燃料電池の拡散層の撓み量を測定する方法であっては、(a)拡散層の剛性マトリックスを設定する工程と、(b)ひずみを計算する工程と、(c)拡散層に引張荷重を加えた際のひずみを計算する工程と、(d)工程(b)および工程(c)の計算結果と、拡散層の圧縮試験および引張試験の試験結果を比較して、剛性マトリックスを最適化する工程と、(e)予め定めた実験計画に従って、工程(d)によって最適化した剛性マトリックスを用いて有限要素法による撓み量を複数計算する工程と、(f)工程(e)によって計算された複数の撓み量に基づいて応答曲面を作成する工程と、(g)応答曲面に基づいて、撓み量を計算するための計算式を作成する工程と、を備える。【選択図】図2
    • 要解决的问题:提供精确计算扩散层的偏转量和表面压力值的技术。解决方案:一种测量燃料电池的扩散层的偏转量的方法包括以下步骤:( a)设置扩散层的刚度矩阵; (b)计算应变; (c)计算当向扩散层施加拉伸载荷时获得的应变; (d)将步骤(b)和(c)的计算结果与扩散层的压缩试验和拉伸试验的结果进行比较,以优化刚度矩阵; (e)根据预设的实验时间表,通过使用步骤(d)中优化的刚度矩阵,通过有限元法计算偏转量; (f)基于在步骤(e)中计算的偏转量来形成响应曲面; 和(g)创建基于响应曲面来计算偏转量的计算公式。
    • 8. 发明专利
    • Design method of high pressure tank
    • 高压罐设计方法
    • JP2010116980A
    • 2010-05-27
    • JP2008290513
    • 2008-11-13
    • Toyota Motor Corpトヨタ自動車株式会社
    • KAWAMOTO TADASHIHARADA TAKESHIINAGI HIDESUKE
    • F17C1/06B29C70/16
    • Y02E60/321
    • PROBLEM TO BE SOLVED: To further surely reduce stress generated in a tank by the action of external force, as a laminated structure of a proper hoop winding layer and a helical winding layer corresponding to a tank shape.
      SOLUTION: A shape and the size of a design liner and the whole thickness T of a design fiber reinforced resin layer group 3 are determined. Strain generated in the design liner when impact force acts is analyzed. When strain εa in the axial direction is larger than strain εb in the peripheral direction, a Th lower limit value being a lower limit value of the whole thickness of the helical winding layer capable of holding the tank shape by a high pressure tank having the design liner is calculated. A Tf/Th design value being the ratio of the whole thickness Tf of the hoop winding layer in the design fiber reinforced resin layer group to the whole thickness Th of the helical winding layer is determined. At this time, the TH in the Tf/Th design value is set as the Th lower limit value.
      COPYRIGHT: (C)2010,JPO&INPIT
    • 要解决的问题:为了进一步确保通过外力的作用减小在罐中产生的应力,作为对应于罐形状的适当的环绕卷层和螺旋缠绕层的层压结构。 解决方案:设计纤维增强树脂层组3的设计衬里的形状和尺寸以及整个厚度T被确定。 分析冲击力作用时在设计衬里中产生的应变。 当沿轴向的应变εa大于周向的应变εb时,Th下限值是能够通过具有设计的高压罐保持罐形状的螺旋卷绕层的整体厚度的下限值 班轮计算。 确定设计纤维增强树脂层组中环形卷绕层的整个厚度Tf与螺旋卷绕层的整个厚度Th之比Tf / Th设计值。 此时,Tf / Th设定值的TH被设定为Th下限值。 版权所有(C)2010,JPO&INPIT
    • 9. 发明专利
    • Fuel cell simulation device and fuel cell
    • 燃料电池模拟装置和燃料电池
    • JP2009193672A
    • 2009-08-27
    • JP2008029928
    • 2008-02-12
    • Toyota Motor Corpトヨタ自動車株式会社
    • TONAI MAKOTOIDA ATSUMIHARADA TAKESHIKAWAMOTO TADASHI
    • H01M8/04H01M8/10
    • H01M8/04305H01M4/86Y02P70/56
    • PROBLEM TO BE SOLVED: To provide a fuel cell simulation device for predicting power generation performance of a fuel cell based on an actual structure (for example, heterogeneous porous body) of a catalyst layer. SOLUTION: The fuel cell simulation device predicts power generation performance of the fuel cell equipped with a membrane-electrode assembly having an electrolyte membrane, a catalyst layer, and a diffusion layer, and includes a model forming means to form a modeling of the catalyst layer based on a geometric profile and characteristic data of the catalyst layer and a calculation means which, by using the catalyst model and by simultaneously equating a gas transport equation, a water formation/transportation phase variation equation, an electric conduction equation, a thermal conduction equation, and a catalyst reaction equation, calculates the power generation status distribution or macro-physical property value of the catalyst layer. COPYRIGHT: (C)2009,JPO&INPIT
    • 要解决的问题:提供一种基于催化剂层的实际结构(例如,非均质多孔体)来预测燃料电池的发电性能的燃料电池模拟装置。 解决方案:燃料电池模拟装置预测配备有具有电解质膜,催化剂层和扩散层的膜电极组件的燃料电池的发电性能,并且包括形成模型的模型形成装置 基于催化剂层的几何形状和特征数据的催化剂层和计算装置,其通过使用催化剂模型并通过同时等效气体输送方程,水形成/输送相变方程,电传导方程, 热传导方程和催化剂反应方程,计算催化剂层的发电状态分布或宏观物理性质值。 版权所有(C)2009,JPO&INPIT
    • 10. 发明专利
    • Vapor-liquid two-phase flow analysis method
    • 蒸汽 - 液体两相流动分析方法
    • JP2009134976A
    • 2009-06-18
    • JP2007309854
    • 2007-11-30
    • Toyota Motor Corpトヨタ自動車株式会社
    • HARADA TAKESHITONAI MAKOTOTERADA KENJIROSHINDO KAZUYA
    • H01M8/02
    • Y02E60/50
    • PROBLEM TO BE SOLVED: To apply a homogenization method to a two-phase penetration flow in a porous structural body, achieve a theory construction for a multi-scale analysis, and provide its numerical analysis algorithm. SOLUTION: In a vapor-liquid two-phase flow analysis method in which a flow of a vapor-liquid two-phase flowing in the porous structural body is analyzed by micro-macro scale, when a triaxial direction pressure gradient and water saturation are changed in a supposed cube micro structure, a vapor-phase penetration coefficient Ka, a liquid-phase permeation coefficient Kw, and a capillary pressure Pcaw are memorized as data, and by substituting a porous body shape of the porous structural body by an equivalent homogeneous body having the vapor-phase penetration coefficient Ka, the liquid-phase permeation coefficient Kw, and a capillary pressure Pcaw, the penetration flow analysis of a macro structure is carried out. COPYRIGHT: (C)2009,JPO&INPIT
    • 要解决的问题:为了将均匀化方法应用于多孔结构体中的两相渗透流,实现多尺度分析的理论构建,并提供其数值分析算法。 解决方案:在通过微观宏观分析在多孔结构体中流动的气液两相的流动的气液两相流分析方法中,当三轴方向压力梯度和水 在假定的立体微结构中改变饱和度,气相渗透系数Ka,液相渗透系数Kw和毛细管压力Pcaw作为数据被记忆,并且通过将多孔结构体的多孔体形状代入 具有气相渗透系数Ka,液相渗透系数Kw和毛细管压力Pcaw的等效均相体,进行宏观结构的渗透流分析。 版权所有(C)2009,JPO&INPIT