Abstract:
A voltage droop monitoring and correcting circuit for a microprocessor includes: a monitor circuit configured to monitor voltage droops of the microprocessor and perform a temporary clock-skipping technique to compensate for the voltage droops. A method for monitoring and correcting voltage droops of a microprocessor includes: monitoring voltage droops of the microprocessor; and performing a temporary clock-skipping technique to compensate for the voltage droops. A computer system includes memory; a processor operatively connected to the memory; and computer-readable instructions stored in the memory for causing the processor to: monitor voltage droops of the microprocessor; and perform a temporary clock-skipping technique to compensate for the voltage droops.
Abstract:
A method for preferentially shielding a signal to increase implicit decoupling capacitance is provided. The signal is preferentially shielded by using a probability of the signal being at a specific value to assign a shield potential. Further, an integrated circuit that preferentially shields a signal to increase decoupling capacitance by using a probability of the signal being at a specific value to assign a shield potential is provided. Further, a computer system for preferentially shielding a signal to increase decoupling capacitance by using a probability of the signal being at a specific value to assign a shield potential is provided. Further, a computer readable medium having executable instructions for preferentially shielding a signal to increase implicit decoupling capacitance by using a probability of the signal being at a specific value to assign a shield potential is provided. Further, a method to increase system performance by increasing implicit decoupling capacitance is provided.
Abstract:
A method that preferentially shields a signal to increase decoupling capacitance is provided. The signal is preferentially shielded based on a probability of the signal being at a specific value. Because the shield may also be used to form the power and ground grid, a balanced number of power versus ground lines is desired. A method for inverting the signal to balance the number of power versus ground lines is provided. Further, a method to increase system performance by increasing implicit decoupling capacitance is provided.
Abstract:
A technique for reducing the power consumed by a clock driver circuit involves selecting between a first power supply path and a second power supply path in response to a power reduction signal. A driver circuit drives an output clock signal from the selected one of the first power supply path and the second power supply path. By reducing the voltage on one of the first power supply path and the second power supply path, the power consumed by the clock driver circuit may be selectively reduced.
Abstract:
An integrated circuit that preferentially shields a signal to increase decoupling capacitance is provided. The signal is preferentially shielded based on a probability of the signal being at a specific value. Further, a method for increasing an amount of decoupling capacitance on a circuit through preferential shielding is provided. Further, a method to increase system performance by increasing implicit decoupling capacitance is provided.
Abstract:
A 120 degree bump placement layout for an integrated circuit power grid is provided. This layout improves integrated circuit performance and reliability and gives an integrated circuit designer added flexibility and uniformity in designing the integrated circuit. Further, a patterned bump array for a top metal layer of an integrated circuit having a plurality of 120 degree bump placement structures is provided.