When interconnecting different end–nodes in on–chip and multi–chip processing<br>architectures, the communication infrastructure plays a dominant role in<br>determining overall system metrics such as performance, reliability and often<br>even area and power. On the other hand, each application domain poses its<br>own design constraints that the interconnect fabric has to cope with, thus<br>leading to well differentiated architecture design principles. Ultimately,<br>careful engineering of the interconnection network is at the core of the<br>successful development of both on–chip and multi–chip processing architectures.<br>The program of the workshop is organized around two main directions.<br>The first direction includes original papers describing new and previously<br>unpublished results on all aspects of interconnection network architectures.<br>Topics of interest include but are not limited to:<br>* Networks–on–Chip (NoC)<br>* Multi–Chip Interconnection Networks, including Cluster Interconnects<br>* "Commodity Switches" as general–purpose building blocks<br>* Switching, buffering, and routing architectures<br>* Flow control and congestion management in switching fabrics<br>* Virtualization<br>* Topology exploration<br>* Timing, synchronous/asynchronous communication<br>* Reliability, availability, fault tolerance<br>* Area/power versus functionality/QoS support in NoC architectures<br>* NoC physical link design<br>* NoC testing and verification<br>* Programming models for NoC–centric systems<br>The second direction will be focused to the design and analysis of reconfigurable<br>Networks–on–Chip. Besides of the already known, hardwired interconnection networks,<br>this special session tries to identify possible new solutions to the area of<br>reconfigurable Networks–on–Chip that can better adapt to system′s needs.<br>The main target of this session is to attract highly qualified submissions<br>that fall into the next three broad categories:<br>* Specifically designed network components that allow some form of static or<br>runtime programmability to their function, allowing for higher performance<br>under certain occasions or for additional fault tolerance.<br>* The mapping and implementation of NoCs to reconfigurable platforms (FPGAs)<br>as soft components and the implications that this mapping generates to the NoC<br>architecture.<br>* On–demand network topologies and structures that better fit to the application<br>characteristics and algorithms.<br>
Abbrevation
INA-OCMC
City
Berlin
Country
Germany
Deadline Paper
Start Date
End Date
Abstract