SNF is an ultra-high performance model of a network system interconnect
fabric that enables fast and accurate communication amongst computational elements
of distributed systems. No longer is the performance and accuracy of your distributed
system models compromised by slow, inaccurate network buses.
System Network Fabric (SNF) is EST's ultra-high performance
network modeling technology that enables the construction of communication facilities
amongst interconnected autonomous modules (controller models) and subsystem models.
SNF uses EST’s protected simulation technology to provide a
timing accurate, ultra-high performance, distributed model of a network. The
first implementations are of the CAN and LIN buses. The FlexRay and MoST buses
will follow.
Enables the interconnection of autonomous modules (controller
and computation models) and subsystems into an ultra-high performance model of
a distributed system.
- Highest performance, timing accurate, distributed system
network fabric model in the world.
- Enables the building of ultra-high performance models of
systems.
- Provides a verification path that enables models and physical
realizations of models to be validated in the same context:
This is a remarkable capability
- The ability to build accurate distributed system models
that have ultra-high simulation performance.
- Enables the full verification of distributed systems.
- Can bus model
- Lin bus model
- Coming:
- CAN and LIN bus controllers
- FlexRay and Most bus models and controllers
- Companies that require high performance models of distributed
embedded systems.
- System architects - for constructing optimized executable
specifications of systems.
- Engineers who design the communication infrastructure between
controllers in a distributed system.
- Verification engineers who need to verify distributed systems.
- Production engineers who need to validate physical product
component against the executable specification:
This capability is in the context of validating a product component incorporated,
as a module, into a simulation of the entire system (that is the context in which
the component must operate).
|