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
    • 4. 发明授权
    • Method and device for dynamically loading relocatable file
    • 用于动态加载可重定位文件的方法和设备
    • US08566372B2
    • 2013-10-22
    • US13258431
    • 2010-07-21
    • Haijian HeXiaohui WuWei Fan
    • Haijian HeXiaohui WuWei Fan
    • G06F17/30
    • G06F9/445G06F8/54
    • The disclosure provides a method for dynamically loading a relocatable file, comprising: analyzing the relocatable file; searching for a relocation section according to the information obtained through the analysis; obtaining a relocation target address after the relocation section is found and calculating an address to be relocated and a skipping distance; determining whether the skipping distance exceeds a range of a short skipping, and if the skipping distance does not exceed the range of the short skipping, then writing the relocation target address into the address to be relocated to perform relocation loading; if the skipping distance exceeds the range of the short skipping, then adding a veneer code segment and making the skipping whose distance exceeds the range of the short skipping indirectly skip to the relocation target address to perform relocation loading. Accordingly, the disclosure provides a device for dynamically loading a relocatable file, comprising: an analyzing module, a calculating module, a searching module, a determining module, and a relocation dynamic loading module. With the solution, dynamically loading a relocatable file can be realized when the calling distance of a function exceeds the range of the short skipping.
    • 本公开提供了一种用于动态加载可重定位文件的方法,包括:分析可重定位文件; 根据通过分析获得的信息搜索搬迁部分; 在重新定位部分被找到并获得重定位目标地址,并计算要重定位的地址和跳过距离; 确定跳跃距离是否超过短跳过的范围,如果跳过距离不超过跳过的距离,则将重定位目标地址写入要重新定位的地址以执行重定位加载; 如果跳过距离超过短跳过的范围,则添加单板代码段,并且跳过距离超过跳过范围的跳过间接跳转到重定位目标地址以执行重定位加载。 因此,本公开提供了一种用于动态加载可重定位文件的装置,包括:分析模块,计算模块,搜索模块,确定模块和重定位动态加载模块。 使用该解决方案,当功能的呼叫距离超过短跳频的范围时,可以实现动态加载可重定位文件。
    • 5. 发明申请
    • Variable Discretization Method For Flow Simulation On Complex Geological Models
    • 用于复杂地质模型的流动模拟的可变离散化方法
    • US20130231907A1
    • 2013-09-05
    • US13825758
    • 2011-08-12
    • Yahan YangLinfeng BiWeidong GuoRossen ParashkevovXiaohui Wu
    • Yahan YangLinfeng BiWeidong GuoRossen ParashkevovXiaohui Wu
    • G06F17/50
    • G06F17/5018G01V99/005G06F2217/16
    • A variable discretization method for general multiphase flow simulation in a producing hydrocarbon reservoir. For subsurface regions for which a regular or Voronoi computational mesh is suitable, a finite difference/finite volume method (“FDM”) is used to discretize numerical solution of the differential equations governing fluid flow (101). For subsurface regions with more complex geometries, a finite element method (“FEM”) is used. The invention combines FDM and FEM in a single computational framework (102). Mathematical coupling at interfaces between different discretization regions is accomplished by decomposing individual phase velocity into an averaged component and a correction term. The averaged velocity component may be determined from pressure and averaged capillary pressure and other properties based on the discretization method employed, while the velocity correction term may be computed using a multipoint flux approximation type method, which may be reduced to two-point flux approximation for simple grid and permeability fields.
    • 一种用于生产油气藏的一般多相流模拟的可变离散化方法。 对于常规或Voronoi计算网格适合的地下区域,使用有限差分/有限体积法(“FDM”)来离散控制流体流动的微分方程(101)的数值解。 对于具有更复杂几何的地下区域,使用有限元法(“FEM”)。 本发明将FDM和FEM组合在一个单一的计算框架中(102)。 通过将各个相速度分解成平均分量和校正项来实现不同离散区域之间的界面处的数学耦合。 平均速度分量可以基于所采用的离散化方法从压力和平均毛细管压力和其他性质确定,而速度校正项可以使用多点通量近似方法来计算,该方法可以减少到两点通量近似 简单网格和渗透性领域。
    • 9. 发明申请
    • Handling Domain Discontinuity With The Help of Grid Optimization Techniques
    • 使用网格优化技术的帮助处理域不连续性
    • US20160125555A1
    • 2016-05-05
    • US14868562
    • 2015-09-29
    • Larisa V. BranetsXiaohui WuLinfeng Bi
    • Larisa V. BranetsXiaohui WuLinfeng Bi
    • G06Q50/02G06Q10/06
    • Method for mapping a 3D grid or mesh from a faulted subsurface domain to a continuous design domain, wherein the grid may be used to represent a discrete model of a subsurface material property (such as permeability) to use, for example, in a reservoir simulator. The mapping is geometry-based, not physics-based. The mapping is determined by an iterative optimization procedure designed to penalize deformation of tessellated mesh cells (703) in the design domain compared to their geometric quality in the faulted domain (701), but subject to stitching constraints (702) appearing as a penalty term or Lagrange multiplier term in the optimization objective function to influence the final mesh to co-locate pairs of points identified on opposite sides of a fault as having been located together before the fault occurred.
    • 用于将3D网格或网格从故障的地下区域映射到连续设计域的方法,其中网格可以用于表示使用例如在储层模拟器中的地下材料属性(例如渗透性)的离散模型 。 映射是基于几何的,而不是基于物理的。 映射由迭代优化过程确定,该迭代优化过程设计用于惩罚设计域中的镶嵌网格单元(703)的变形,与其在有缺陷域(701)中的几何质量相比,但是受拼接限制(702)作为惩罚项 或拉格朗日乘数项,以影响最终网格以将故障相对侧上识别的点对在故障发生之前位于一起。