As technology evolves, power density significantly increases and cooling systems become more complex and expensive. The issue logic is one of the processor hotspots and, at the same time, its latency is crucial for the processor performance. We present a low-complexity FP issue logic (MB/spl I.bar/distr) that achieves high performance with small energy requirements. The MB/spl I.bar/distr scheme is based on classifying instructions and dispatching them into a set of queues depending on their data dependences. These instructions are selected for issuing based on an estimation of when their operands will be available, so the conventional wakeup activity is not required. Additionally, the functional units are distributed across the different q...
Front-end instruction delivery accounts for a significant fraction of the energy consumed in a dynam...
Design of wakeup-free issue queues is becoming desirable due to the increasing complexity associated...
Superscalar processors contain large, complex structures to hold data and instructions as they wait ...
As technology evolves, power density significantly increases and cooling systems become more complex...
The issue logic of a dynamically-scheduled superscalar processor is a complex mechanism devoted to s...
The improved performance of current microprocessors brings with it increasingly complex and power-di...
A Large instruction window is a key requirement to exploit greater Instruction Level Parallelism in ...
The issue logic of a superscalar processor dissipates a large amount of static and dynamic power. Fu...
Large instruction windows and issue queues are key to exploiting greater instruction level paralleli...
Instruction issue logic is a critical component in modern high-performance out-of-order processors. ...
In contemporary superscalar microprocessors, issue queue is a considerable energy dissipating compon...
A major consumer of microprocessor power is the issue queue. Several microprocessors, including the ...
Instruction queues consume a significant amount of power in a high-performance processor. The wakeup...
Abstract. Dynamic instruction scheduling logic is one of the most critical components of modern supe...
Institute for Computing Systems ArchitectureSuperscalar processors contain large, complex structures...
Front-end instruction delivery accounts for a significant fraction of the energy consumed in a dynam...
Design of wakeup-free issue queues is becoming desirable due to the increasing complexity associated...
Superscalar processors contain large, complex structures to hold data and instructions as they wait ...
As technology evolves, power density significantly increases and cooling systems become more complex...
The issue logic of a dynamically-scheduled superscalar processor is a complex mechanism devoted to s...
The improved performance of current microprocessors brings with it increasingly complex and power-di...
A Large instruction window is a key requirement to exploit greater Instruction Level Parallelism in ...
The issue logic of a superscalar processor dissipates a large amount of static and dynamic power. Fu...
Large instruction windows and issue queues are key to exploiting greater instruction level paralleli...
Instruction issue logic is a critical component in modern high-performance out-of-order processors. ...
In contemporary superscalar microprocessors, issue queue is a considerable energy dissipating compon...
A major consumer of microprocessor power is the issue queue. Several microprocessors, including the ...
Instruction queues consume a significant amount of power in a high-performance processor. The wakeup...
Abstract. Dynamic instruction scheduling logic is one of the most critical components of modern supe...
Institute for Computing Systems ArchitectureSuperscalar processors contain large, complex structures...
Front-end instruction delivery accounts for a significant fraction of the energy consumed in a dynam...
Design of wakeup-free issue queues is becoming desirable due to the increasing complexity associated...
Superscalar processors contain large, complex structures to hold data and instructions as they wait ...