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Contenido archivado el 2024-05-28

Nanoscale Silicon-Aware Network-on-Chip Design Platform

Descripción del proyecto

Design of semiconductor components and electronic based miniaturised systems
The objective of this project is to develop an innovative network-on-chip oriented design platform constituting a toolkit for the construction of NoC-based multi-core systems in nanoscale technologies
The NaNoC project aims at developing an innovative design platform for future Network-on-Chip (NoC) based multi-core systems. This NaNoC design platform intends to master the design complexity of advanced microelectronic systems by enabling strict component oriented architectural design. A compositional approach to NoC design in future multi-core chips is out of the reach of current design methods and tools due to new design constraints. Requirements for co-design with high-level platform management frameworks facilitates a need for enhanced dynamism and flexibility in NoC composition (e.g. virtualization, power management, thermal management, application management). On the other hand, a higher degree of uncertainty originating from nanoscale integrated circuit fabrication technologies raises the need to build reliable systems out of unreliable components.The NaNoC design platform provides design methods and prototype tools to cope with both challenges and to make NoCs a mainstream interconnect backbone for effective system integration. The platform enables NoC component assembly at each layer of the design hierarchy. Therefore, design for manufacturability techniques and tools are developed to preserve yield in the presence of manufacturing defects and circuit performance/power variability.Above all, the NaNoC design platform fosters tight cooperation between system research, circuit design and process development by means of a silicon-aware decision making at each layer of the design hierarchy. In this direction, NaNoC not only provides a cross-layer approach to tackle composability challenges (e.g. physical design techniques for enhanced reliability combined with architecture-level techniques for fault containment), but also defines an exchange format for interoperability between design tools for cross-layer optimization. Interoperability between developed NoC design methods/prototype tools and mainstream design toolflows will also be pursued.

The NaNoC project aims at developing an innovative design platform for future Network-on-Chip (NoC) based multi-core systems. This NaNoC design platform intends to master the design complexity of advanced microelectronic systems by enabling strict component oriented architectural design. A compositional approach to NoC design in future multi-core chips is out of the reach of current design methods and tools due to new design constraints. Requirements for co-design with high-level platform management frameworks facilitates a need for enhanced dynamism and flexibility in NoC composition (e.g. virtualization, power management, thermal management, application management). On the other hand, a higher degree of uncertainty originating from nanoscale IC fabrication technologies raises the need to build reliable systems out of unreliable components.The NaNoC design platform provides design methods and prototype tools to cope with both challenges and to make NoCs a mainstream interconnect backbone for effective system integration. The platform enables NoC component assembly at each layer of the design hierarchy. Therefore, design for manufacturability techniques and tools are developed to preserve yield in the presence of manufacturing defects and circuit performance/power variability.Above all, the NaNoC design platform fosters the tight cooperation between system research, circuit design and process development by means of a silicon-aware decision making at each layer of the design hierarchy. In this direction, NaNoC not only provides a cross-layer approach to tackle composability challenges (e.g. physical design techniques for enhanced reliability combined with architecture-level techniques for fault containment), but also defines an exchange format for interoperability between design tools for cross-layer optimization. Interoperability between developed NoC design methods/prototype tools and mainstream design toolflows will also be pursued.

Convocatoria de propuestas

FP7-ICT-2009-4
Consulte otros proyectos de esta convocatoria

Régimen de financiación

CP - Collaborative project (generic)

Contacto del coordinador

JOSE Flich Mr.

Coordinador

UNIVERSITAT POLITECNICA DE VALENCIA
Aportación de la UE
€ 513 763,00
Dirección
CAMINO DE VERA SN EDIFICIO 3A
46022 Valencia
España

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Región
Este Comunitat Valenciana Valencia/València
Tipo de actividad
Higher or Secondary Education Establishments
Enlaces
Coste total
Sin datos

Participantes (7)