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    • 5. 发明申请
    • INTEGRATED CIRCUIT WITH DYNAMIC MEMORY ALLOCATION
    • 具有动态记忆分配的集成电路
    • WO2005010759A1
    • 2005-02-03
    • PCT/IB2004/051241
    • 2004-07-16
    • KONINKLIJKE PHILIPS ELECTRONICS N.V.HARMSZE, Françoise, J.BURCHARD, Artur, T.KENTER, Harm, J, H., N.
    • HARMSZE, Françoise, J.BURCHARD, Artur, T.KENTER, Harm, J, H., N.
    • G06F12/02
    • G06F12/0842G06F12/084G06F12/0862Y02D10/13
    • An integrated circuit comprising a plurality of modules (M) for processing applications is provided, wherein each of said modules comprise a local memory (LM). The integrated circuit further comprises a global memory (GM), which can be shared between the plurality of modules (M), and an interconnect means (IM) for interconnecting said modules (M) and said global memory (GM). A memory managing unit (MMU) is associated to each of said modules (M) and determines whether the local memory (LM) provides sufficient memory space for the currently processed application. If this is not the case, the memory managing unit (MMU) requests a global buffer (FB) in said global memory (GM) to be exclusively reserved for the processing data of its associated module (M). Accordingly, by using the local memory (LM), whenever possible, before data is outsourced to the global memory (GM), power as well as bandwidth of the interconnect means can be saved. Furthermore, sufficient flexibility is introduced to the system on-chip to enable running applications that demand more local resources e. g. local memory, than are available in the subsystems or modules (M), without having the need to design the subsystems or modules for worst case scenarios. Especially, when the worst-case demands are much higher than the average case, the cost advantage can be significant.
    • 提供一种包括用于处理应用的多个模块(M)的集成电路,其中每个所述模块包括本地存储器(LM)。 集成电路还包括可以在多个模块(M)之间共享的全局存储器(GM)和用于互连所述模块(M)和所述全局存储器(GM)的互连装置(IM)。 存储器管理单元(MMU)与每个所述模块(M)相关联并且确定本地存储器(LM)是否为当前处理的应用提供足够的存储器空间。 如果不是这种情况,则存储器管理单元(MMU)请求全局存储器(GM)中的全局缓冲器(FB)专用于其关联的模块(M)的处理数据。 因此,通过使用本地存储器(LM),只要可能,在将数据外包给全局存储器(GM)之前,可以节省功率以及互连装置的带宽。 此外,片上系统引入了足够的灵活性,以便能够运行需要更多本地资源的应用程序。 G。 本地存储器,而不是在子系统或模块(M)中可用,而不需要为最坏情况设计子系统或模块。 特别是当最坏情况要求远高于平均情况时,成本优势可能会很大。
    • 6. 发明申请
    • AN OBJECT CREATION STRATEGY FOR SIMULATOR MODULES
    • 模拟器模块的对象创建策略
    • WO2005010781A1
    • 2005-02-03
    • PCT/IB2004/051221
    • 2004-07-14
    • KONINKLIJKE PHILIPS ELECTRONICS N.V.KENTER, Harm, J., H., N.HARMSZE, Francoise, J.BURCHARD, Artur, T.
    • KENTER, Harm, J., H., N.HARMSZE, Francoise, J.BURCHARD, Artur, T.
    • G06F17/50
    • G06F17/5022
    • The present invention relates to a method of performing a simulation based on a simulation model, wherein the simulation model comprises a number of interconnected simulation objects, where at least part of the simulation objects is adapted to be sim+ted based on simulation code defined in accessible modules identified by a module ID, and where at least a part of said accessible modules has an attached module specific object creator defining how the simulation code in the module is to be handled when simulating an object defined by the module, the method of performing the simulation comprising the steps of: initializing the simulation by registering, in a simulation system accessible d ' abase, a link between the module ID and how to access the module specific object creator and accessing said module specific object creator when simulating an object defined by the attached module. Thereby the definition on how the simulation code in the modules is to be handled is no longer inside the simulator, and the kernel of the simulator does not need to be recompiled when adding new modules. Instead, the simulator can just look in the database, which provides the link between the module names from the system model and how to access the module specific object creator.
    • 本发明涉及一种基于仿真模型执行仿真的方法,其中仿真模型包括多个互连的仿真对象,其中至少部分仿真对象适于基于模拟代码中的定义 由模块ID识别的可访问模块,并且其中至少一部分所述可访问模块具有附加的模块特定对象创建者,其定义当模拟由模块定义的对象时模块中的模拟代码如何被处理,执行方法 该模拟包括以下步骤:通过在模拟系统可访问的模拟系统中注册模块ID之间的链接以及如何访问模块特定对象创建者并且在模拟由 附件模块。 因此,如何处理模块中的模拟代码的定义不再在模拟器内,并且在添加新模块时,模拟器的内核不需要重新编译。 相反,模拟器只能查看数据库,这提供了来自系统模型的模块名称之间的链接以及如何访问模块特定对象创建者。
    • 7. 发明申请
    • ELECTRONIC DEVICE AND METHOD DETERMINING A WORKLOAD OF AN ELECTRONIC DEVICE
    • 电子设备和确定电子设备的工作负载的方法
    • WO2008117248A1
    • 2008-10-02
    • PCT/IB2008/051124
    • 2008-03-26
    • NXP B.V.BURCHARD, Artur, T.MEIJER, Rinze, I., M., P.
    • BURCHARD, Artur, T.MEIJER, Rinze, I., M., P.
    • G06F1/16
    • G06F1/3203Y02D10/126
    • An electronic device is provided with at least one functional unit (HB) performing a processing, wherein the functional unit (HB) receives a supply current (Isupply). A supply current monitor (SCM) is provided for monitoring the supply current (Isupply) to determine an average supply current (Iavg). A characterization unit (CU) is provided for determining a first relation between the averaged supply current (Iavg) and an operation frequency of the functional unit and/or for determining a second relation between a workload of the functional unit (HB) and the average supply current (Iavg) of the functional unit (HB). Furthermore, a slope calculation unit (SCU) is provided for determining the slope of the first and/or second relation. The operation of the functional unit (HB) is controlled according to the results of the slope calculation unit (SCU).
    • 电子设备具有执行处理的至少一个功能单元(HB),其中功能单元(HB)接收供电电流(Isupply)。 提供电源电流监视器(SCM)用于监视电源电流(Isupply)以确定平均电源电流(Iavg)。 提供表征单元(CU),用于确定平均的电源电流(Iavg)和功能单元的操作频率之间的第一关系和/或用于确定功能单元(HB)的工作负载与平均值之间的第二关系 供电电流(Iavg)功能单元(HB)。 此外,提供斜率计算单元(SCU),用于确定第一和/或第二关系的斜率。 功能单元(HB)的操作根据斜率计算单元(SCU)的结果进行控制。