14 | | 1. '''Logical topology''' - both at the level of individual nodes or groups of nodes. We are expressing a ''logical'' topology of the experiment where there are '''objects''' that do something in the experiment - generate traffic, change state, hold data, whatever. Whether these objects are individually generated or generated as a group of entities, whether they are physical nodes or virtual, etc. does not matter. The expressiveness should be such that the actual implementation of objects and the cardinality of each object is orthogonal to the topology description. We should however be able to give '''hints'' such as "these objects are in the same network or on same physical node or object A resides on object B". Here is a rough list of hints we'd like to be able to give: |
| 14 | 1. '''Logical topology''' - both at the level of individual nodes or groups of nodes. We are expressing a ''logical'' topology of the experiment where there are '''objects''' that do something in the experiment - generate traffic, change state, hold data, whatever. Whether these objects are individually generated or generated as a group of entities, whether they are physical nodes or virtual, etc. does not matter. The expressiveness should be such that the actual implementation of objects and the cardinality of each object is orthogonal to the topology description. We should however be able to give '''hints''' such as "these objects are in the same network or on same physical node or object A resides on object B". Here is a rough list of hints we'd like to be able to give: |