This will be achieved by introducing a common concept of a flow-processing platform, instantiated at critical points in the network. Although the
platform and its interfaces are common, the processing performed must be programmable, allowing the network to evolve and support the needs of rapidly changing applications. Such platforms can be built from commodity hardware - e.g. x86 servers and commodity switching chipsets -, and are both scalable and powerful while retaining the flexibility to quickly introduce processing primitives.
These platforms form the basis for CHANGE, but the vision is larger. The goal is an architecture that combines multiple communicating flow processing platforms to provide innovative end-to-end services to applications. Thus, conventional traffic flows can be processed at varying degrees of granularity, and application-specific virtual network overlays can be constructed, without impacting other network services or traffic. The aim is to do this within an
architectural framework that allows application developers and network operators to reason about the emergent end-to-end behaviour.
| 1 | Eurescom Gmbh. |
Germany |
| 2 | NEC Europe Ltd. |
United Kingdom |
| 3 | Deutsche Telekom AG |
Germany |
| 4 | University College London |
United Kingdom |
| 5 | Lancaster University |
United Kingdom |
| 7 | Université catholique de Louvain |
Belgium |
| 8 | Technische Universität Berlin |
Germany |
| 9 | Universitatea Politehnica Bucuresti |
Rumania |
| 10 | Nextworks s.r.l |
Italy |
| 11 | Dreamlab Technologies | Switzerland |
| 12 | Universita` di Pisa |
Italy |