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PipeRench is designed as a reconfigurable fabric. The chip breaks down each of its pipeline stages into individual ''stripes''. Each strip has a set of simple execution units (EU/PE), register files, and a interconnection network. By configuring each of the stripes using the interconnect network, it's possible to virtualize different kind of custom hardware. The ALU, for example contains additional circuitry to facilitate [[bit-slice microprocessor|bit-slicing]].
 
PipeRench is designed as a reconfigurable fabric. The chip breaks down each of its pipeline stages into individual ''stripes''. Each strip has a set of simple execution units (EU/PE), register files, and a interconnection network. By configuring each of the stripes using the interconnect network, it's possible to virtualize different kind of custom hardware. The ALU, for example contains additional circuitry to facilitate [[bit-slice microprocessor|bit-slicing]].
  
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{{expand section}}
 
== Die Shot ==
 
== Die Shot ==
 
[[File:cmu piperench die.jpg|450px]]
 
[[File:cmu piperench die.jpg|450px]]
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49 mm² on a [[180 nm process]].
  
 
== Documents ==  
 
== Documents ==  

Revision as of 10:34, 22 June 2016

Template:mpu PipeRench was a research microprocessor designed at Carnegie Mellon University in the early 2000s. PipeRench was developed with a reconfigurable pipeline. This allows what would otherwise have to be implemented as specialized embedded chips to be implemented in a more generic way using PipeRench through reconfiguration.

Technology developed for this project was eventually leased to Rapport for their Kilocore architecture which eventually resulted in the KC256, a 256-core chip.

Architecture

PipeRench is designed as a reconfigurable fabric. The chip breaks down each of its pipeline stages into individual stripes. Each strip has a set of simple execution units (EU/PE), register files, and a interconnection network. By configuring each of the stripes using the interconnect network, it's possible to virtualize different kind of custom hardware. The ALU, for example contains additional circuitry to facilitate bit-slicing.

New text document.svg This section requires expansion; you can help adding the missing info.

Die Shot

cmu piperench die.jpg

49 mm² on a 180 nm process.

Documents

External links