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    • 3. 发明授权
    • Dual transparent latch
    • 双透明闩锁
    • US5424996A
    • 1995-06-13
    • US953158
    • 1992-09-29
    • Robert J. MartinGlenn T. Colon-BonetBrian C. Miller
    • Robert J. MartinGlenn T. Colon-BonetBrian C. Miller
    • G11C7/10G11C8/06H03K3/012H03K3/037G11C8/00G11C7/00
    • H03K3/037G11C7/1078G11C8/06H03K3/012
    • A dual transparent latch circuit is disclosed comprising two latches cross coupled together by two control lines to enable the latches collectively to input and output data at twice the frequency of the master clock frequency which controls the timing of each latch individually. The control lines are controlled by a clock generator such that one latch is enabled to receive and store data while the other latch is enabled to output data stored therein. At the same time, the latch receiving and storing the data is disabled from providing an output of the stored data and the latch providing the output is disabled from receiving and storing the data. The clock generator switches the states of the control lines such that they enable or disable the input of data to and output of data from the latches on each phase of the master clock signal. A dual transparent latch with triple edge timing is also disclosed. A method for generating a master signal having a master frequency and selectively enabling inputs at an input data rate greater than the master frequency to input data into memory and selectively enabling outputs at the input data rate to output data from memory.
    • 公开了一种双透明锁存电路,其包括由两个控制线交叉耦合在一起的两个锁存器,以使得锁存器能够共同地以主控制器频率的频率的两倍输入和输出,该时钟频率分别控制每个锁存器的定时。 控制线由时钟发生器控制,使得一个锁存器能够接收和存储数据,而另一个锁存器被使能以输出存储在其中的数据。 同时,禁止接收和存储数据的锁存器提供存储的数据的输出,并且提供输出的锁存器被禁止接收和存储数据。 时钟发生器切换控制线的状态,使得它们能够或禁止从主时钟信号的每个相位上的锁存器输入数据并输出数据。 还公开了具有三重边沿定时的双透明锁存器。 一种用于产生具有主频率的主信号并且以大于主频率的输入数据速率选择性地启用输入的方法,用于将数据输入到存储器中,并且以输入数据速率有选择地使得输出能够从存储器输出数据。
    • 4. 发明授权
    • Systems and methods for variable control of power dissipation in a pipelined processor
    • 流水线处理器功耗可变控制的系统和方法
    • US06651176B1
    • 2003-11-18
    • US09457169
    • 1999-12-08
    • Donald C. Soltis, Jr.Glenn T. Colon-Bonet
    • Donald C. Soltis, Jr.Glenn T. Colon-Bonet
    • G06F126
    • G06F9/3867G06F1/3203G06F1/324G06F1/3243G06F9/3836G06F9/3857G06F9/3869Y02D10/126Y02D10/152
    • The invention controls maximum average power dissipation by stalling high power instructions through the pipeline of a pipelined processor. A power dissipation controller stalls the high power instructions in order to control the processor's maximum average power dissipation. Preferably, the controller is modeled after a capacitive system with a constant output rate and a throttled input rate: the output rate represents the steady state maximum average power dissipation; while the input rate is stalled based upon current capacity, representing thermal response time. At start-up, the capacity is initialized. Yet for each high power instruction, the capacity increases by a weighted value. Each clock capacity is also decreased by a variable output rate. In particular, a low power operation is inserted to the stage execution circuit where the stall is desired, creating a low power state for that circuit. This stall effectively creates a “hole” at that pipeline stage, thus temporarily reducing power dissipation. The invention takes advantage of the fact that the presence of an instruction at any stage execution circuit dissipates power and that the absence (i.e., a “hole”) of an instruction at any stage dissipates less power. By controlling where and when a hole occurs within the pipeline, the maximum average power dissipation of the processor is controlled.
    • 本发明通过流水线处理器的流水线停止高功率指令来控制最大平均功耗。 功耗控制器停止高功率指令,以控制处理器的最大平均功耗。 优选地,控制器在具有恒定输出速率和节流输入速率的电容系统之后被建模:输出速率表示稳态最大平均功率耗散; 而输入速率则基于当前容量而停滞,代表热响应时间。 启动时,容量初始化。 然而对于每个大功率指令,容量增加一个加权值。 每个时钟容量也以可变输出速率降低。 特别地,低功率操作被插入到期望失速的级执行电路中,为该电路产生低功率状态。 这个停顿在该流水线阶段有效地创建了一个“孔”,从而暂时降低功耗。 本发明利用了在任何阶段执行电路中存在指令消耗功率并且任何阶段的指令的不存在(即,“孔”)消耗较少功率的事实。 通过控制在管道内发生孔的何处和何时,控制处理器的最大平均功耗。
    • 10. 发明授权
    • Methods and apparatus for performing division and square root
computations in a computer
    • 在计算机中执行划分和平方根计算的方法和装置
    • US5404324A
    • 1995-04-04
    • US146895
    • 1993-11-01
    • Glenn T. Colon-Bonet
    • Glenn T. Colon-Bonet
    • G06F7/38G06F7/483G06F7/52G06F7/535G06F7/537G06F7/552
    • G06F7/535G06F7/5375G06F7/5525G06F2207/5528G06F7/4873G06F7/49957
    • An apparatus for performing floating-point division and square root computations according to an IEEE rounding standard includes input data alignment circuitry, core iteration circuitry, remainder compare circuitry, and round and select circuitry. The core iteration circuitry includes digit selector circuitry; remainder registers; quotient logic circuitry; remainder formation circuitry; and quotient registers for storing the quotient Q, incremented quotient Q+1, and decremented quotient Q-1. The remainder formation circuitry produces sum and carry bits of the P.sub.j+1 term, which are in turn fed back to the partial remainder registers and used in subsequent iterations. The quotient logic circuitry builds the quotient Q and maintains the respective quotient Q, Q+1, Q-1 registers. The outputs of these registers are fed back to the quotient logic circuitry for use in subsequent iterations. The remainder compare circuitry comprises a remainder comparator and a logic circuit. The remainder comparator receives the sum and carry bits for the P.sub.j+1 terms and outputs the "Sign" and "Zero" bits. These bits are received by the logic circuit along with a rounding mode signal, which is indicative of the selected rounding mode, e.g., shifted or normalized round to nearest, round to zero, or round to infinity. The logic circuit outputs a round select signal that selects a quotient select signal for selecting, as the final rounded quotient, the output of one of the quotient registers Q, Q+1, or Q-1. The round and select circuitry includes a round block for positive remainders and a round block for negative remainders.
    • 用于根据IEEE舍入标准执行浮点分割和平方根计算的装置包括输入数据对准电路,核心迭代电路,余数比较电路以及循环和选择电路。 核心迭代电路包括数字选择器电路; 余数寄存器; 商逻辑电路; 余数形成电路; 以及用于存储商Q,递增商Q + 1和递减商Q-1的商寄存器。 剩余形成电路产生Pj + 1项的和和进位位,这些位又反馈到部分余数寄存器并用于后续迭代。 商逻辑电路构建商Q并维持相应的商Q,Q + 1,Q-1寄存器。 这些寄存器的输出反馈到商逻辑电路,用于后续迭代。 剩余比较电路包括余数比较器和逻辑电路。 剩余比较器接收和并携带Pj + 1项的位,并输出“符号”和“零”位。 这些位由逻辑电路连同舍入模式信号一起被接收,舍入模式信号指示所选择的舍入模式,例如,移位或归一化到最接近,最近到零,或者到达到无穷大。 逻辑电路输出一个圆选择信号,其选择商选择信号,用于选择商寄存器Q,Q + 1或Q-1之一的输出作为最终舍入商。 圆形和选择电路包括用于正残余物的圆形块和用于负余留物的圆形块。