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
    • 81. 发明申请
    • Method and system of rendering particle
    • 渲染粒子的方法和系统
    • US20070159049A1
    • 2007-07-12
    • US11652051
    • 2007-01-11
    • Do KimKee LeeSe TakSang WooJeong Ahn
    • Do KimKee LeeSe TakSang WooJeong Ahn
    • H01J29/10
    • G06T13/60
    • A particle rendering method and system that can receive a selection of a shape and/or a motion of a particle or a selection or a correction of a predetermined particle pattern, and generate a particle corresponding to the selection thereby generating a particle that has the desired shape and motion. Furthermore, the method and system can render a large number of particles in real time by sorting a plurality of particles using a render group. The particle rendering system includes a receiving module to receive a selection on a shape or a motion of a particle, and a first particle generation unit to generate a first particle corresponding to the shape or the motion by calling information corresponding to the shape selection from a shape information module or information corresponding to the motion selection from a motion information module.
    • 可以接收颗粒的形状和/或运动的选择或预定的颗粒图案的选择或校正的选择的粒子渲染方法和系统,并且生成与选择相对应的粒子,从而产生具有期望的粒子 形状和运动。 此外,该方法和系统可以通过使用渲染组排序多个粒子来实时地呈现大量的粒子。 粒子渲染系统包括:接收模块,用于接收关于粒子的形状或运动的选择;以及第一粒子生成单元,用于通过调用与形状选择相对应的信息来生成与形状或运动对应的第一粒子 形状信息模块或与来自运动信息模块的运动选择相对应的信息。
    • 82. 发明申请
    • Apparatus for calculating phase using binary search
    • 使用二进制搜索计算相位的装置
    • US20070127596A1
    • 2007-06-07
    • US11634554
    • 2006-12-06
    • Hun KangDo Kim
    • Hun KangDo Kim
    • H04L27/00
    • H04L27/0014H04L27/366H04L27/38H04L2027/0067
    • A phase calculation apparatus using a binary search is provided. The phase calculation apparatus includes a quarter surface preprocessor determining the bigger one between an absolute value of I component data and an absolute value of Q component data as horizontal component data and the smaller one as perpendicular component data, and detecting information on a phase region indicating an mth (m=1 to 8) phase region (the mth phase region is between (m−1) π/4 and m π/4 in which the I/Q component data are located; a phase representative value detector detecting phase representative values x corresponding to the horizontal component data and the perpendicular component data; and a quarter surface postprocessor calculating phase values of the I/Q component data based on the detected information about the phase region and the detected phase representative values x. The phase can be calculated using a limited memory, low complexity of calculation and regardless of the number of bits of I/Q component data.
    • 提供了使用二进制搜索的相位计算装置。 相位计算装置包括四分之一表面预处理器,其确定I分量数据的绝对值和Q分量数据的绝对值之间的较大值作为水平分量数据,较小的一个作为垂直分量数据,并且检测关于指示 第m(m = 1〜8)相区域(第m〜第0相)区域在(m-1)pi / 4和m pi / 4之间,其中 定位I / Q分量数据;相位代表值检测器,检测与水平分量数据和垂直分量数据相对应的相位代表值x;以及四分之一表面后处理器,基于检测到的信息计算I / Q分量数据的相位值 关于相位区域和检测到的相位代表值x,可以使用有限的存储器,低计算复杂度来计算相位,而不管I / Q分量数据的位数。
    • 83. 发明申请
    • Light emitting device
    • 发光装置
    • US20070085787A1
    • 2007-04-19
    • US11455706
    • 2006-06-20
    • Do Kim
    • Do Kim
    • G09G3/32
    • H01L51/5225H01L27/3283H01L27/3288
    • The present invention relates to a light emitting device where difference of brightness of pixels can be reduced when the same data currents are applied to the pixels. The light emitting device includes anode electrode layers, cathode electrode layers, pixels and cathode lines. The anode electrode layers are disposed in a first direction. The cathode electrode layers are disposed in a second direction. The pixels are formed in cross areas of the anode electrode layers and the cathode electrode layers. The cathode lines are coupled to the cathode electrode layers. Here, in one cathode electrode layer, at least one of resistors between parts corresponding to pixels except a first pixel next to a cathode line corresponding to the cathode electrode layer has resistance smaller than resistor between a part corresponding to the first pixel and a part corresponding to a pixel next to the first pixel.
    • 本发明涉及一种发光器件,当相同的数据电流被施加到像素时,可以减小像素的亮度差异。 发光器件包括阳极电极层,阴极电极层,像素和阴极线。 阳极电极层沿第一方向设置。 阴极电极层沿第二方向设置。 像素形成在阳极电极层和阴极电极层的交叉区域中。 阴极线耦合到阴极电极层。 这里,在一个阴极电极层中,对应于除了与阴极电极层对应的阴极线旁边的第一像素之外的像素之间的部分之间的电阻器中的至少一个电阻比对应于第一像素的部分与对应的部分之间的电阻小 到第一像素旁边的像素。
    • 84. 发明申请
    • Dispersant for carbon nanotube and composition comprising the same
    • 碳纳米管用分散剂及其组成
    • US20070078215A1
    • 2007-04-05
    • US11352137
    • 2006-02-10
    • Seon YoonEun LeeJae ChoiDo Kim
    • Seon YoonEun LeeJae ChoiDo Kim
    • C08K3/04C07C43/00
    • C08G61/124B82Y30/00C08G61/125C08G61/126C08L65/00
    • A dispersant for a carbon nanotube and a composition comprising the same are provided, wherein the dispersant is comprised of a structure including a head part composed of an electron-rich atom and an aromatic ring having a high affinity for the carbon nanotube and a tail part having an affinity for a dispersion medium, and thus exhibits excellent stabilizing and dispersing effects of the carbon nanotube in a variety of dispersion media including organic solvents, water or mixtures thereof. Use of the dispersant in accordance with the present invention enables convenient preparation of carbon nanotube compositions necessary for a variety of industrial fields such as emitters of field emission displays (FEDs), carbon nanotube inks, printable carbon nanotubes and the like.
    • 提供了一种用于碳纳米管的分散剂及包含该分散剂的组合物,其中分散剂包括由富含电子的原子构成的头部和对碳纳米管具有高亲和力的芳环和尾部的结构 对分散介质具有亲和性,因此在包括有机溶剂,水或其混合物的各种分散介质中表现出优异的碳纳米管的稳定和分散作用。 使用根据本发明的分散剂可以方便地制备各种工业领域所需的碳纳米管组合物,例如场发射显示器(FED)的发射体,碳纳米管油墨,可印刷的碳纳米管等。
    • 85. 发明申请
    • Antireflective hardmask composition and methods for using same
    • 防反射硬掩模组​​合物及其使用方法
    • US20070003863A1
    • 2007-01-04
    • US11301049
    • 2005-12-12
    • Dong UhJi JungJae OhChang OhDo Kim
    • Dong UhJi JungJae OhChang OhDo Kim
    • G03C1/00
    • G03F7/091G03F7/0387Y10S430/115
    • Hardmask compositions having antireflective properties useful in lithographic processes, methods of using the same, and semiconductor devices fabricated by such methods, are provided. Antireflective hardmask compositions of the invention include: (a) a polymer mixture including a first polymer that includes one or more of the following monomeric units wherein A is a bivalent radical selected from the group consisting of carbonyl, oxy, alkylene, fluoroalkylene, phenyldioxy, and any combination thereof; R1 and R2 are each independently a bivalent radical selected from the group consisting of an alkylene, an arylene, and any combination thereof; and x, y, and z are 0 or integers; and a second polymer including an aryl group; (b) a crosslinking component; and (c) an acid catalyst.
    • 提供了具有抗平滑印刷工艺中有用的抗反射性能的硬掩模组合物,其使用方法以及通过这些方法制造的半导体器件。 本发明的抗反射硬掩模组​​合物包括:(a)包含第一聚合物的聚合物混合物,其包含一种或多种下列单体单元,其中A是选自羰基,氧基,亚烷基,氟代亚烷基,苯基二氧基, 及其任何组合; R 1和R 2各自独立地为选自亚烷基,亚芳基及其任何组合的二价基团; x,y和z为0或整数; 和包含芳基的第二聚合物; (b)交联组分; 和(c)酸催化剂。
    • 86. 发明申请
    • Method for estimating SOC of a battery and battery management system using the same
    • 用于估计使用其的电池和电池管理系统的SOC的方法
    • US20070001649A1
    • 2007-01-04
    • US11479560
    • 2006-06-30
    • Il ChoDo KimDo Jung
    • Il ChoDo KimDo Jung
    • H02J7/00
    • G01R31/3675G01R31/362G01R31/3693
    • Disclosed is a method for setting an initial SOC value, which initializes the SOC in consideration of not only the temperature change of the external environment of the battery but also the internal temperature change of the battery before the battery reaches a stable unloaded state, thereby enhancing the accuracy in the setup of the initial SOC value. The method includes: measuring internal temperatures of the battery and SOCs corresponding to voltages of the battery, which change according to the time passage after a loaded state is converted into an unloaded state, and constructing an SOC estimation table by using measured values, and storing the SOC estimation table; measuring the internal temperature and the voltage of the battery when estimation of an initial SOC value of the battery is required; and reading an SOC corresponding to the measured internal temperature and the voltage of the battery from the SOC estimation table.
    • 公开了一种用于设定初始SOC值的方法,其不仅考虑电池的外部环境的温度变化而初始化SOC,而且考虑到电池在电池达到稳定的卸载状态之前的内部温度变化,从而增强 初始SOC值的设置精度。 该方法包括:测量电池的内部温度和对应于电池电压的SOC,其根据负载状态转换为无载状态后的时间流逝而改变,并且通过使用测量值构建SOC估计表,并且存储 SOC估计表; 当需要估计电池的初始SOC值时,测量电池的内部温度和电压; 并从SOC估计表读取与测量的内部温度和电池电压对应的SOC。
    • 90. 发明申请
    • Method of structuring comparative reference value used in battery SOC estimating method for dynamic pattern
    • 构建电池SOC估算方法中比较参考值的方法
    • US20060244458A1
    • 2006-11-02
    • US11378439
    • 2006-03-17
    • Il ChoDo Kim
    • Il ChoDo Kim
    • G01N27/416
    • G01R31/3651B60L11/1861G01R1/28G01R19/16542G01R31/3624H01M10/441H01M10/482Y02T10/7011Y02T10/7044Y02T10/705
    • Disclosed is a method for structuring a comparative reference value used to estimate a residual charge (SOC; State of Charge) of a battery. The method comprises comprising steps of: measuring open circuit voltages (OCV) and residual capacities (SOC) of a battery at various temperatures and tabling them according to the temperatures; measuring an open circuit voltage (OCV1) at a temperature before a test; carrying out a discharge capacity counting (Ah-counting) for the battery using a measurement apparatus while carrying out a dynamic pattern test; providing a sufficient relaxation time period for the battery after ending the dynamic pattern test; measuring an open circuit voltage (OCV2) at a temperature after the sufficient relaxation time period; obtaining residual capacity values of the battery corresponding to the measured open circuit voltages (OCV1, OCV2) from the table; assuming a difference between the above-obtained two residual capacity values as a δSOC and calculating an 1C-rated capacity based on the δSOC; and applying the calculated rated capacity as a denominator of the discharge capacity counting to calculate an exact residual capacity of the battery.
    • 公开了一种用于构造用于估计电池的剩余电荷(SOC;充电状态)的比较参考值的方法。 该方法包括以下步骤:测量各种温度下的电池的开路电压(OCV)和剩余容量(SOC),并根据温度对其进行压片; 在测试前的温度下测量开路电压(OCV 1); 在进行动态图案测试时,使用测量装置对电池进行放电容量计数(Ah计数); 在结束动态模式测试后为电池提供足够的放松时间; 在足够的弛豫时间段之后的温度下测量开路电压(OCV 2); 从所述表中获取与所测量的开路电压(OCV 1,OCV 2)对应的电池的剩余容量值; 假定上述获得的两个剩余容量值之间的差值作为ΔSOC并基于ΔSOC计算1C额定容量; 并将计算出的额定容量作为放电容量计数的分母来计算电池的精确剩余容量。