Abstract—Off-chip bus transitions are a major source of power dissipation for embedded systems. In this paper, new adaptive encoding schemes are proposed that significantly reduce transition activity on data and multiplexed address buses. These adaptive techniques are based on self-organizing lists to achieve reduction in transition activity by exploiting the spatial and temporal locality of the addresses. Also the proposed techniques do not require any extra bit lines and have minimal delay overhead. The techniques are evaluated for efficiency using a wide variety of application programs including SPEC 95 benchmark set. Unlike previous approaches that focus on instruction address buses, experiments demonstrate significant reduction in tran...
In very deep sub-micron designs, cross coupling capacitances become the dominant factor of the total...
Abstract External buses consume substantial power for their high capacitances of bus lines and I/O p...
With the rapid increase in the complexity of chips and the popularity of portable devices, the perfo...
In this paper, we introduce a class of irredundant low power encoding techniques for memory address ...
The power dissipated by system-level buses is the largest contribution to the global power of comple...
In microprocessor-based systems, large power savings can be achieved through reduction of the transi...
The power dissipated by system-level buses is the largest contribution to the global power of compl...
Abstract — This paper presents a solution to the problem of reducing the power dissipated by a digit...
In this paper, we introduce a class of irredundant low power encoding techniques for memory address ...
In microprocessor-based systems, data and address buses are the core of the interface between a micr...
The energy consumption at the I/O pins is a significant part of the overall chip consumption. This p...
[[abstract]]In this paper, we propose a bus encoding scheme to minimize coupling effects which cause...
The energy consumption due to input-output pins is a substantial part of the overall chip consumptio...
In very deep sub-micron designs, cross coupling capacitances become the dominant factor of the total...
Abstract External buses consume substantial power for their high capacitances of bus lines and I/O p...
With the rapid increase in the complexity of chips and the popularity of portable devices, the perfo...
In this paper, we introduce a class of irredundant low power encoding techniques for memory address ...
The power dissipated by system-level buses is the largest contribution to the global power of comple...
In microprocessor-based systems, large power savings can be achieved through reduction of the transi...
The power dissipated by system-level buses is the largest contribution to the global power of compl...
Abstract — This paper presents a solution to the problem of reducing the power dissipated by a digit...
In this paper, we introduce a class of irredundant low power encoding techniques for memory address ...
In microprocessor-based systems, data and address buses are the core of the interface between a micr...
The energy consumption at the I/O pins is a significant part of the overall chip consumption. This p...
[[abstract]]In this paper, we propose a bus encoding scheme to minimize coupling effects which cause...
The energy consumption due to input-output pins is a substantial part of the overall chip consumptio...
In very deep sub-micron designs, cross coupling capacitances become the dominant factor of the total...
Abstract External buses consume substantial power for their high capacitances of bus lines and I/O p...
With the rapid increase in the complexity of chips and the popularity of portable devices, the perfo...