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    • 1. 发明申请
    • METHOD AND APPARATUS FOR CONSERVING ENERGY STORED IN BYPASS CAPACITORS DURING DYNAMIC POWER COLLAPSE
    • 在动力收敛期间保留旁路电容器储存的能量的方法和装置
    • WO2009046202A2
    • 2009-04-09
    • PCT/US2008/078602
    • 2008-10-02
    • QUALCOMM IncorporatedMICHALAK, Gerald Paul
    • MICHALAK, Gerald Paul
    • H02J7/34
    • H02J9/005H02M2001/0032Y02B70/16Y10T307/50
    • Energy stored in bypass capacitors in a portable device may be conserved when a power supply voltage is collapsed reducing the need to recharge the bypass capacitors and thereby saving power. A bypass charge saving circuit includes a bypass capacitor, a power source having an output supply voltage that is switchable, a load circuit of the portable device coupled to the output supply voltage, and the bypass capacitor operable to filter the output supply voltage. Also, a transistor switch is operable to decouple a discharge path of the bypass capacitor through the load circuit when the transistor switch is disabled. Further, a controller is operable to turn off the output supply voltage and the transistor switch in order to conserve energy stored in the bypass capacitor.
    • 存储在便携式设备中的旁路电容器中的能量可以在电源电压崩溃时被保存,从而减少对旁路电容器的再充电从而节省功率。 旁路充电节电电路包括旁路电容器,具有可切换的输出电源电压的电源,耦合到输出电源电压的便携式设备的负载电路和用于滤波输出电源电压的旁路电容器。 此外,当晶体管开关被禁用时,晶体管开关可操作用于通过负载电路去耦合旁路电容器的放电路径。 此外,控制器可操作以关闭输出电源电压和晶体管开关,以便节省存储在旁路电容器中的能量。
    • 4. 发明申请
    • INTEGRATED WIRELESS HEADSET
    • 集成无线耳机
    • WO2005120023A1
    • 2005-12-15
    • PCT/US2004/019891
    • 2004-06-22
    • SONY ERICSSON MOBILE COMMUNICATIONS ABMICHALAK, Gerald P.
    • MICHALAK, Gerald P.
    • H04M1/05
    • H04M1/0258G08B21/24H04M1/05H04M1/6066H04M2250/02
    • A mobile device integrates a wireless headset with the housing of a mobile terminal. In an exemplary embodiment, the housing of the mobile terminal includes a fastener for mechanically connecting the wireless headset to the housing. When the wireless headset is mechanically disconnected from the housing, a speaker and microphone associated with the wireless headset interfaces with the mobile terminal via a wireless interface. However, when the wireless headset mechanically connects to the housing, the speaker and microphone associated with the wireless headset mechanically and electrically connect to the housing and operate as the speaker and microphone for the mobile terminal. A detector circuit included in the mobile device also determines the position of the wireless headset relative to the mobile terminal, and may automatically select a wireless or electrical interface between the wireless headset and the mobile terminal based on the determined position.
    • 移动设备将无线耳机与移动终端的外壳集成。 在示例性实施例中,移动终端的外壳包括用于将无线耳机机械地连接到外壳的紧固件。 当无线耳机与壳体机械地断开连接时,与无线耳机相关联的扬声器和麦克风经由无线接口与移动终端接口。 然而,当无线耳机机械地连接到外壳时,与无线耳机相关联的扬声器和麦克风机械地和电连接到壳体并作为用于移动终端的扬声器和麦克风进行操作。 包括在移动设备中的检测器电路还确定无线耳机相对于移动终端的位置,并且可以基于所确定的位置自动选择无线耳机与移动终端之间的无线或电接口。
    • 5. 发明申请
    • METHODS AND APPARATUS FOR VOLTAGE SCALING
    • 电压放大的方法和装置
    • WO2013010164A1
    • 2013-01-17
    • PCT/US2012/046905
    • 2012-07-16
    • QUALCOMM IncorporatedMICHALAK, Gerald PaulBRIDGES, Jeffrey Todd
    • MICHALAK, Gerald PaulBRIDGES, Jeffrey Todd
    • G06F1/32
    • G06F1/3296G06F1/26Y02D10/172
    • Methods and apparatus for voltage scaling are provided. In an example, an operational limit of a processor is determined by varying a supply voltage to force a processor interrupt fault and/or a processor reset. A clock frequency and the supply voltage can be maintained substantially constant for a time duration. If these operational parameters do not force the processor interrupt fault and/or the processor reset, the supply voltage is varied again, and the clock frequency and the supply voltage are maintained substantially constant for a second time duration. The variation continues until initiation of the processor interrupt fault and/or the processor reset, at which time least one of a clock frequency, the supply voltage, and a temperature are recorded as an operational limit. After determining the operational limit, the supply voltage is adjusted to within the operational limit.
    • 提供了电压缩放的方法和装置。 在一个示例中,通过改变供应电压来强制处理器中断故障和/或处理器复位来确定处理器的操作限制。 时钟频率和电源电压可以在一段持续时间内保持基本恒定。 如果这些操作参数不强制处理器中断故障和/或处理器复位,则电源电压再次变化,并且时钟频率和电源电压在第二持续时间内保持基本上恒定。 该变化持续到处理器中断故障开始和/或处理器复位,此时将时钟频率,电源电压和温度中的至少一个记录为操作限制。 确定运行极限后,将电源电压调整到运行极限内。
    • 6. 发明申请
    • METHOD AND APPARATUS FOR EXECUTING PROCESSOR INSTRUCTIONS BASED ON A DYNAMICALLY ALTERABLE DELAY
    • 基于动态可变延迟执行处理器指令的方法和装置
    • WO2008022288A1
    • 2008-02-21
    • PCT/US2007/076151
    • 2007-08-16
    • QUALCOMM IncorporatedMICHALAK, Gerald PaulDOCKSER, Kenneth Alan
    • MICHALAK, Gerald PaulDOCKSER, Kenneth Alan
    • G06F9/38
    • G06F9/30145G06F9/3806G06F9/3836G06F9/384G06F9/3842G06F9/3869G06F9/3877
    • Instruction execution delay is alterable after the system design has been finalized, thus enabling the system to dynamically account for various conditions that impact instruction execution. In some embodiments, the dynamic delay is determined by an application to be executed by the processing system. In other embodiments, the dynamic delay is determined by analyzing the history of previously executed instructions. In yet other embodiments, the dynamic delay is determined by assessing the processing resources available to a given application. Regardless, the delay may be dynamically altered on a per-instruction, multiple instruction, or application basis. Processor instruction execution may be controlled by determining a first delay value for a first set of one or more instructions and a second delay value for a second set of one or more instructions. Execution of the sets of instructions is delayed based on the corresponding delay value.
    • 指令执行延迟在系统设计完成后可以改变,从而使系统能够动态地考虑影响指令执行的各种条件。 在一些实施例中,动态延迟由处理系统要执行的应用程序确定。 在其他实施例中,通过分析先前执行的指令的历史来确定动态延迟。 在其他实施例中,通过评估给定应用可用的处理资源来确定动态延迟。 无论如何,延迟可以在每个指令,多个指令或应用程序的基础上动态地改变。 处理器指令执行可以通过确定一个或多个指令的第一组的第一延迟值和第二组一个或多个指令的第二延迟值来控制。 基于相应的延迟值来延迟指令集的执行。
    • 9. 发明申请
    • DYNAMIC VIDEO SWITCHING
    • 动态视频切换
    • WO2012100032A1
    • 2012-07-26
    • PCT/US2012/021841
    • 2012-01-19
    • QUALCOMM INCORPORATEDFANG, XinSHI, WeiMICHALAK, Gerald Paul
    • FANG, XinSHI, WeiMICHALAK, Gerald Paul
    • H04N21/442H04N21/426
    • H04N21/4424H04N21/42607
    • In an example, a dynamic codec allocation method is provided. The method includes receiving a plurality of datastreams and determining a respective codec loading factor for each of the datastreams. The datastreams are assigned to codecs, in order by respective codec loading factor, starting with the highest respective codec loading factor. Initially, the datastreams are assigned to a hardware codec, until the hardware codec is loaded to substantially maximum capacity. If the hardware codec is loaded to substantially maximum capacity, the remaining datastreams are assigned to a software codec. As new datastreams are received, the method repeats, and previously-assigned datastreams can be reassigned from a hardware codec to a software codec, and vice versa, based on their relative codec loading factors.
    • 在一个示例中,提供了动态编解码器分配方法。 该方法包括接收多个数据流并确定每个数据流的相应的编解码器加载因子。 数据流被分配到编解码器,按照相应的编解码器加载因子顺序,从最高的相应的编解码器加载因子开始。 最初,数据流被分配到硬件编解码器,直到硬件编解码器被加载到基本上最大的容量。 如果硬件编解码器被加载到基本上最大的容量,剩余的数据流被分配给软件编解码器。 当接收到新的数据流时,该方法重复,并且可以基于它们的相对编解码器加载因子将先前分配的数据流从硬件编解码器重新分配到软件编解码器,反之亦然。