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    • 1. 发明专利
    • Method of simulating low molecule in macromolecule
    • 在大分子中模拟低分子的方法
    • JP2011123874A
    • 2011-06-23
    • JP2010241729
    • 2010-10-28
    • Toray Ind Inc東レ株式会社
    • KAWAKAMI TOMOKAZUSHIGEMOTO ISAMU
    • G06F19/00C08J3/20C08L101/00
    • PROBLEM TO BE SOLVED: To improve the kinetic property of low molecules in macromolecules for molecular dynamic simulations, to calculate the locations of low molecules in macromolecules and the average value and distribution of intermolecular interaction energies in a practical calculation time and with statistical-mechanically reliable accuracy. SOLUTION: This method at least includes steps of: (1) storing an atom's coordinate, coupling information, potential parameter type, charge, mass, conditions for increasing or decreasing a scale value, output conditions, and the initial value of the scale value in memory; (2) calculating intramolecular interaction energy, intermolecular interaction energy, intramolecular force, and intermolecular force; (3) either increasing or decreasing the scale value and providing or stopping an output; (4) reducing a scale value λ ij to a value of less than 1 where (i) and (j) are a combination of an atom in a macromolecule and an atom in a low molecule, or (5) increasing the value up to 1; (6) outputting the atom's coordinate and the intermolecular interaction energy; (7) and updating the atom's coordinate and speed. Steps (2 to 7) are repeatedly performed until a specified number of times is reached. COPYRIGHT: (C)2011,JPO&INPIT
    • 要解决的问题:为了提高分子动力学模拟中大分子中低分子的动力学性质,计算大分子中低分子的位置以及实际计算时间内分子间相互作用能的平均值和分布,统计学 机械可靠的精度。 解决方案:该方法至少包括以下步骤:(1)存储原子坐标,耦合信息,潜在参数类型,电荷,质量,增加或减小比例值的条件,输出条件和初始值 记忆中的尺度值 (2)计算分子间相互作用能,分子间相互作用能,分子内力和分子间力; (3)增加或减小比例值,提供或停止输出; (4)将尺度值λ ij 降低到小于1的值,其中(i)和(j)是高分子中的原子和低分子中的原子的组合,或( 5)将值增加到1; (6)输出原子的坐标和分子间的相互作用能; (7)并更新原子的坐标和速度。 重复执行步骤(2至7),直到达到指定次数。 版权所有(C)2011,JPO&INPIT
    • 2. 发明专利
    • Electrolyte film and method of manufacturing same, and its application
    • 电解质膜及其制造方法及其应用
    • JP2007149651A
    • 2007-06-14
    • JP2006288329
    • 2006-10-24
    • Toray Ind Inc東レ株式会社
    • ADACHI MASAYAKAWAKAMI TOMOKAZUKIDAI MASAYUKINAKAMURA MASATAKA
    • H01M8/02C08J5/22H01B1/06H01B13/00H01M8/10
    • Y02P70/56
    • PROBLEM TO BE SOLVED: To provide an electrolyte film with a low fuel crossover and a small humidity dependency of ionic conductivity, and to provide a film electrode composite and a fuel cell quickly rising from a fuel depletion state to generate by supplying fuel and capable of attaining high output even in a state of high temperature and low humidification. SOLUTION: The electrolyte film 3 contains an acidic group AH with a PKa value between -17.0 and 5.0 and a water alternative group B with a PKb value between -6.0 and 4.0. The manufacturing method for the electrolyte film comprises a process impregnating or filling a material containing the water alternative group B and/or a material containing a water alternative group B precursor and/or a material containing the acidic group AH and/or a material containing an acidic group AH precursor in the electrolyte film comprising the acidic group AH and/or the water alternative group B. COPYRIGHT: (C)2007,JPO&INPIT
    • 要解决的问题:提供具有低燃料分选和离子电导率的小湿度依赖性的电解质膜,并且提供薄膜电极复合材料和燃料电池,其从燃料消耗状态快速上升以通过供应燃料产生 并且即使在高温和低加湿的状态下也能够获得高输出。 解决方案:电解质膜3含有PKa值在-17.0和5.0之间的酸性基团AH和PKb值在-6.0和4.0之间的水替代物B。 电解质膜的制造方法包括浸渍或填充含有水替代基团B的材料和/或含有水替代基团B前体和/或含有酸性基团AH的材料的材料和/或含有 包含酸性基团AH和/或水替代组B的电解质膜中的酸性基团AH前体。(C)2007,JPO&INPIT
    • 3. 发明专利
    • Method of manufacturing polymer electrolyte membrane
    • 制备聚合物电解质膜的方法
    • JP2010165616A
    • 2010-07-29
    • JP2009008552
    • 2009-01-19
    • Toray Ind Inc東レ株式会社
    • TOMOKUNI MAYUMIADACHI MASAYAKIDAI MASAYUKIKAWAKAMI TOMOKAZU
    • H01M8/02C08J5/22H01B13/00H01M8/10
    • Y02P70/56
    • PROBLEM TO BE SOLVED: To provide a polymer electrolyte membrane of high quality and high durability with power generating performance improved in low humidity by restraining agglomeration of ionic group metal salt and making isolated metal salt or the like soluble to a solvent, in a manufacturing process of the polymer electrolyte membrane containing ionic group metal salt. SOLUTION: The method of manufacturing the polymer electrolyte membrane including a casting application process, a drying process and an acid treatment process of polymer electrolyte solution containing metal salt of an ionic group in this order, further consists of (1) a process of adding glycol and/or a circular metal scavenger to polymer electrolyte solution before the casting application process, and (2) a process of removing the glycol and/or the circular metal scavenger after the drying process. COPYRIGHT: (C)2010,JPO&INPIT
    • 要解决的问题:通过抑制离子基金属盐的聚集并使可溶于溶剂的分离的金属盐等能够提供高质量和高耐久性的高发电性能,在低湿度下改善发电性能, 含有离子性金属盐的高分子电解质膜的制造方法。 解决方案:包括依次包含离子基团的金属盐的聚合物电解质溶液的浇铸施加工艺,干燥工艺和酸处理工艺的制造方法还包括(1) 在浇铸施工过程之前向聚合物电解质溶液中加入二醇和/或环状金属清除剂,和(2)在干燥过程之后除去二醇和/或环状金属清除剂的方法。 版权所有(C)2010,JPO&INPIT
    • 7. 发明专利
    • Method for determining parameter for charge equilibration method
    • 用于确定充电均衡方法参数的方法
    • JP2011096241A
    • 2011-05-12
    • JP2010204043
    • 2010-09-13
    • Toray Ind Inc東レ株式会社
    • KAWAKAMI TOMOKAZUSHIGEMOTO ISAMU
    • G06F19/00
    • PROBLEM TO BE SOLVED: To provide easy and versatile determination of a parameter for charge equilibration method in molecular simulation. SOLUTION: The method includes: S1, inputting a molecular initial structure; S2, calculating point charge of each atom and outputting an optimized structure and the point charge; S3, calculating a point charge of each atom by application of a uniform minute electric field, and outputting an optimized structure and the point charge; S4, storing electro-negativity, initial value of hardness, the optimized structures and point charges obtained in S2 and S3, and the direction and magnitude of the minute electric field to a memory; S5, storing a point charge of each atom by charge equilibration method using the electro-negativity, the hardness and the optimized structures; S6, storing point charge of each atom obtained by charge equilibration method using the electro-negativity, the hardness, the optimized structures and the direction and magnitude of the uniform minute electric field; S7, comparing the point charges obtained by quantum-chemical calculation and the charge equilibration method, and storing a residual error thereof; S8, determining a convergence of residual error; S9, adjusting the values of electro-negativity and hardness to reduce the residual error, and storing the adjusted values; and S10, outputting the values of electro-negativity and hardness, and S5-9 are repeated until the residual error is converged. COPYRIGHT: (C)2011,JPO&INPIT
    • 要解决的问题:为了在分子模拟中提供电荷平衡方法的参数的简单且通用的确定。 解决方案:该方法包括:S1,输入分子初始结构; S2,计算每个原子的点电荷并输出优化的结构和点电荷; S3,通过施加均匀的微小电场计算每个原子的点电荷,并输出优化的结构和点电荷; S4,存储电负性,硬度初始值,S2和S3中获得的优化结构和点电荷以及微电场到存储器的方向和大小; S5,使用电负性,硬度和优化结构,通过电荷平衡方法存储每个原子的点电荷; S6,通过电荷平衡法获得的每个原子的存储点电荷使用均匀微电场的电负性,硬度,优化结构以及方向和幅度; S7,比较通过量子化学计算获得的点电荷和电荷平衡方法,并存储其残留误差; S8,确定残差的收敛; S9,调整电负性和硬度值以减少残余误差,并存储调整值; S10,输出电负性和硬度值,并重复S5-9直到残差误差收敛。 版权所有(C)2011,JPO&INPIT
    • 8. 发明专利
    • Affinity calculating method
    • AFFINITY计算方法
    • JP2009080803A
    • 2009-04-16
    • JP2008221066
    • 2008-08-29
    • Toray Ind Inc東レ株式会社
    • OKUMURA HIROTOKAWAKAMI TOMOKAZUSHIGEMOTO ISAMU
    • G06F19/00
    • PROBLEM TO BE SOLVED: To provide a method for calculating an affinity between a molecular aggregate and solute molecules at high speed. SOLUTION: Simulation for calculating an affinity between the molecular aggregate and the solute molecule comprises the steps for: storing initial coordinate data of the molecular aggregate in a computer; executing a calculation of the initial coordinate data of the molecular aggregate and outputting at least one snapshot; inserting the solute molecule in a random initial position about at least one selected snapshot; calculating a potential energy difference when the solute molecule is located at the initial position; storing the potential energy difference in the computer; changing the positions of the solute molecules; calculating a potential energy difference of the solute molecules; calculating ΔV; determining the changed position of the solute molecule; storing the position in the computer; calculating a chemical potential; and outputting the value of the chemical potential. COPYRIGHT: (C)2009,JPO&INPIT
    • 要解决的问题:提供一种用于计算高分子聚集体和溶质分子之间的亲和力的方法。 解决方案:用于计算分子聚集体和溶质分子之间的亲和力的模拟包括以下步骤:将分子聚集体的初始坐标数据存储在计算机中; 执行分子聚合体的初始坐标数据的计算并输出至少一个快照; 将溶质分子插入到关于至少一个所选快照的随机初始位置; 当溶质分子位于初始位置时计算势能差; 将潜在的能量差存储在计算机中; 改变溶质分子的位置; 计算溶质分子的势能差; 计算ΔV; 确定溶质分子的改变位置; 将位置存储在计算机中; 计算化学势; 并输出化学势的值。 版权所有(C)2009,JPO&INPIT
    • 9. 发明专利
    • Point-charge determination method for coarse-graining molecule simulation
    • 用于粗粒化分子模拟的点费用确定方法
    • JP2007149075A
    • 2007-06-14
    • JP2006292293
    • 2006-10-27
    • Toray Ind Inc東レ株式会社
    • SHIGEMOTO ISAMUKAWAKAMI TOMOKAZU
    • G06F17/50G06F19/00
    • PROBLEM TO BE SOLVED: To provide a point-charge determination method for a coarse-graining molecule simulation by which a molecule simulation can be executed speedily and highly precisely by using a coarse-graining model. SOLUTION: This point-charge determination method comprises: an electrostatic potential determination step 2 of calculating spatial distribution of electrostatic potential on the Van der Waals surface by quantization chemical calculation; a coarse-graining step 3 of reducing units constituting molecules or molecular aggregate by making two or more atom consisting the molecules or molecular aggregates into roughly visualized particles; an approximate electrostatic potential calculation step 5 of calculating the spatial distribution of the electrostatic potential from coordinates of the roughly visualized particles and the point-charge; a residual calculation step 6 of calculating residual by comparing the electrostatic potential by quantization chemistry with the approximate electrostatic potential by the point-charge and an electric charge optimization step 7 for determining convergence of the residual and adjusting a value of the point-charge so that the residual is reduced. COPYRIGHT: (C)2007,JPO&INPIT
    • 要解决的问题:为了提供一种粗粒化分子模拟的点电荷测定方法,通过该粗粒化分子模拟可以通过使用粗粒化模型快速高精度地执行分子模拟。 该点电荷确定方法包括:通过量化化学计算计算范德华表面上的静电电位的空间分布的静电电位确定步骤2; 通过将由分子或分子聚集体组成的两个或更多个原子分成大致可视化的颗粒,构成分子或分子聚集体的还原单元的粗粒化步骤3; 近似静电电位计算步骤5,用于从粗略可视化粒子和点电荷的坐标计算静电电位的空间分布; 计算残差的残差计算步骤6,通过将量子化学中的静电电位与通过点电荷的近似静电电位进行比较来计算残差;以及电荷优化步骤7,用于确定残差的收敛并调整点电荷的值,使得 剩余量减少。 版权所有(C)2007,JPO&INPIT
    • 10. 发明专利
    • Polymerization catalyst for polyester
    • 聚酯聚合催化剂
    • JP2005330476A
    • 2005-12-02
    • JP2005120649
    • 2005-04-19
    • Toray Ind Inc東レ株式会社
    • OTSUZUMI HIROSHISHIGEMOTO ISAMUKAWAKAMI TOMOKAZU
    • C08G63/82
    • PROBLEM TO BE SOLVED: To make it possible to obtain a polyester having a good color tone, and to solve problems caused by an antimony compound when it is used as a catalyst.
      SOLUTION: A polymerization catalyst for the polyester comprises a metal complex compound which is used as the catalyst in a polycondensation process of polyester synthesis reaction and has an organic ligand, wherein the complex compound has a molecular volume of not less than 0.2 nm
      3 and not more than 0.4 nm
      3 which is obtained by calculating a stable molecular structure of the compound according to a molecular orbital procedure based on its structural formula.
      COPYRIGHT: (C)2006,JPO&NCIPI
    • 要解决的问题:为了获得具有良好色调的聚酯,并且可以解决当用作催化剂时由锑化合物引起的问题。 解决方案:聚酯的聚合催化剂包含在聚酯合成反应的缩聚过程中用作催化剂并具有有机配体的金属络合物,其中络合物的分子量不小于0.2nm 通过基于其结构式通过分子轨道过程计算化合物的稳定分子结构而获得的 3 和不大于0.4nm 3。 版权所有(C)2006,JPO&NCIPI