Communication
and control
infrastructure |
Technology: |
u |
Technology: |
u |
Technology:
|
|
Data
transmission along the power grid (e.g.
unidirectional control of demand) |
|
Multi-directional broadband-communications
network |
|
Wireless mesh network i.e.: distributed
computing. |
|
Purpose: |
u |
Purpose: |
u |
Purpose:
|
|
Remote (fault)
sensing and substation switching |
|
Enabling smart
features such as remote performance analysis
and automatic remediation, and
demand-generation matching |
|
- Guaranteed bandwidth
per node,
- symmetry of
operation,
- very low latencies,
- very high
scalability, etc.).
|
|
Metering:
|
u |
Metering:
|
u |
Metering: |
|
Mainly manual
meters |
|
Digital smart
meters (actively remote-control and
remote-readout devices |
|
The key challenge is in the
communication networks required to achieve
true energy network intelligence. |
| |
Systems |
u |
Systems
|
u |
Systems |
Grid and
energy-
management-
software solutions |
Support
the operation of
manual
control centers
(from network control stations.
-
Monitoring and remote-sensing systems
- Manual
remote controls and switches
|
|
Provided
"intelligence" that
facilitates smart-grid behavior
|
|
Energy is deposited or
withdrawn and where the intelligence built
into the network manages the network
- load balancing,
- distributed energy
storage management,
- demand side
management,
- distributed supply
management,
- distributed power
factor correction, in real-time, i.e. by
the millisecond,
- remote energy
metering
|
| |
Power |
u |
Power |
u |
Power |
Energy
infrastructure |
Is
distributed to customers from central
sources and power hubs
- Tree-
shaped structure
- Slow
response to changes
|
|
I s
distributed between central and
decentralized elements,
sometimes switching the roles of source and
consumer
-
Mesh-and-ring structure
-
Fast response to charges
|
|
Integration of a number of
point-of-use generators into
|
| |
|
|
|
Competition from New Players |
|
|
|
2nd Generation New Players |
|