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    • 22. 发明申请
    • USE OF HYDROCARBON NANORINGS FOR DATA STORAGE
    • 用于数据存储的碳氢化合物的使用
    • US20140269015A1
    • 2014-09-18
    • US14289104
    • 2014-05-28
    • Laurence H. Cooke
    • Laurence H. Cooke
    • H01L29/06G11C11/21
    • H01L29/0669B82Y10/00G11C11/14G11C11/161G11C11/44G11C13/025G11C2213/35H01F1/42H01L51/0052H01L51/0575
    • Hydro-carbon nanorings may be used in storage. Sufficiently cooled, an externally hydrogen doped carbon nanoring may be used to create a radial dipole field to contain streams of electrons. Similarly, an internally hydrogen doped carbon nanoring may be used to create a radial dipole field to contain streams of positrons. When matched streams of positrons and electrons are sufficiently compressed they may form Cooper pairs with magnetic moments aligned to the movement of the stream. Matched adjacent Cooper pairs of electrons and positrons may contain information within their magnetic moments, and as such, may transmit and store information with little or no energy loss. Information may be similarly encoded in magnetic moments of spins of pairs of positrons and electrons, not in the form of Cooper pairs.
    • 水碳纳米管可用于储存。 足够冷却,可以使用外部氢掺杂的碳纳米来产生径向偶极场以包含电子流。 类似地,内部氢掺杂的碳纳米可以用于产生径向偶极场以包含正电子流。 当正电子和电子的匹配流被充分压缩时,它们可以形成具有与流的运动对准的磁矩的Cooper对。 匹配的Cooper对电子和正电子可能包含其磁矩内的信息,因此,可以很少或没有能量损失传输和存储信息。 信息可以类似地编码在正电子和电子对的旋转的磁矩中,而不是以Cooper对的形式。
    • 27. 发明授权
    • Adaptable circuit blocks for use in multi-block chip design
    • 适用于多块芯片设计的电路块
    • US07249340B2
    • 2007-07-24
    • US10971609
    • 2004-10-22
    • Laurence H. CookeKumar Venkatramani
    • Laurence H. CookeKumar Venkatramani
    • G06F17/50
    • G06F8/443G01R31/318342G01R31/318536G06F1/10G06F17/5045G06F17/5068G06F17/5077
    • Techniques for increasing flexibility in use of virtual component blocks include a method for hardening a foundation block, a pin-unscrambling methodology for semi-hardened virtual component blocks, and parameterizable virtual component blocks. A method for hardening a foundation block and utilizing it in a circuit design comprises the steps of defining a virtual component foundation block, hardening an interior region of the foundation block including at least the critical timing components such as the system bus. The foundation block has a “soft collar” for allowing interface parameters to be specified when the foundation block is incorporated into a circuit design. In addition, the foundation block may comprise an internal, hierarchical clocking scheme for even clock distribution and optimum performance. For example, all internal clock delays may be padded, except the longest one, so that the clock signal arrives at all relevant reference points within the foundation block at the same time.
    • 用于增加使用虚拟部件块的灵活性的技术包括用于硬化基础块的方法,用于半硬化虚拟部件块的引脚解扰方法以及可参数化的虚拟部件块。 用于硬化基础块并在电路设计中利用它的方法包括以下步骤:定义虚拟部件基础块,硬化基础块的内部区域至少包括诸如系统总线的关键定时分量。 基础块具有“软环”,用于在将基础块结合到电路设计中时允许指定接口参数。 此外,基础块可以包括用于均匀时钟分配和最佳性能的内部分层时钟方案。 例如,除了最长的时间之外,所有的内部时钟延迟可以被填充,使得时钟信号同时到达基础块内的所有相关参考点。
    • 28. 发明授权
    • Block based design methodology with programmable components
    • 具有可编程组件的基于块的设计方法
    • US06968514B2
    • 2005-11-22
    • US09812068
    • 2001-03-19
    • Laurence H. CookeKumar VenkatramaniJin-Sheng Shyr
    • Laurence H. CookeKumar VenkatramaniJin-Sheng Shyr
    • G06F17/50H01L21/82
    • G06F17/5045G06F2217/78
    • A method for designing a circuit block includes the steps of selecting a plurality of pre-designed circuit blocks to be used to design the circuit system, at least one of said circuit blocks being programmable; collecting data reflecting the experience of the designer regarding the pre-designed circuit blocks, the designer's experience being adaptable to a processing method; accepting or rejecting a design of the circuit system in a manner based on the designer's experience data and acceptable degree of risk; upon acceptance, forming block specifications containing criteria and modified constraints for each of the circuit blocks (FEA); and, upon acceptance, forming block specifications for deploying the circuit blocks on a floor plan of a chip, in compliance with the criteria and modified constraints without changing the selected circuit block and the processing method.
    • 一种用于设计电路块的方法包括以下步骤:选择要用于设计电路系统的多个预先设计的电路块,所述电路块中的至少一个是可编程的; 收集反映设计者关于预先设计的电路块的经验的数据,设计者的经验适应于处理方法; 以设计师的经验数据和可接受的风险程度的方式接受或拒绝电路系统的设计; 在接受时,形成包含每个电路块(FEA)的标准和修改约束的块规范; 并且在接受之后,在不改变所选择的电路块和处理方法的情况下,根据标准和修改的约束,形成用于将电路块部署在芯片的平面图上的块规范。
    • 29. 发明授权
    • Adaptable circuit blocks for use in multi-block chip design
    • 适用于多块芯片设计的电路块
    • US06901562B2
    • 2005-05-31
    • US09766311
    • 2001-01-18
    • Laurence H. CookeKumar Venkatramani
    • Laurence H. CookeKumar Venkatramani
    • G01R31/3183G01R31/3185G06F1/10G06F9/45G06F17/50
    • G06F8/443G01R31/318342G01R31/318536G06F1/10G06F17/5045G06F17/5068G06F17/5077
    • Techniques for increasing flexibility in use of virtual component blocks include a method for hardening a foundation block, a pin-unscrambling methodology for semi-hardened virtual component blocks, and parameterizable virtual component blocks. A method for hardening a foundation block and utilizing it in a circuit design comprises the steps of defining a virtual component foundation block, hardening an interior region of the foundation block including at least the critical timing components such as the system bus. The foundation block has a “soft collar” for allowing interface parameters to be specified when the foundation block is incorporated into a circuit design. In addition, the foundation block may comprise an internal, hierarchical clocking scheme for even clock distribution and optimum performance. For example, all internal clock delays may be padded, except the longest one, so that the clock signal arrives at all relevant reference points within the foundation block at the same time.
    • 用于增加使用虚拟部件块的灵活性的技术包括用于硬化基础块的方法,用于半硬化虚拟部件块的引脚解扰方法以及可参数化的虚拟部件块。 用于硬化基础块并在电路设计中利用它的方法包括以下步骤:定义虚拟部件基础块,硬化基础块的内部区域至少包括诸如系统总线的关键定时分量。 基础块具有“软环”,用于在将基础块结合到电路设计中时允许指定接口参数。 此外,基础块可以包括用于均匀时钟分配和最佳性能的内部分层时钟方案。 例如,除了最长的时间之外,所有的内部时钟延迟可以被填充,使得时钟信号同时到达基础块内的所有相关参考点。