Environmental Engineering Reference
In-Depth Information
The Resilience Index will be determined as the sum of all indicators
sudden change multiplied with time period for their recovery.. Resilience
Index rating for each case will be obtains in the numerical form corresponding
to constrains as specified for each case. For each case the maximum value
Resilience Index will be determined and presented as the rating among the
cases under consideration.
3.3.4. Conclusions
It is of interest to notice that the case 2 has the maximum value of
Resilience Index. This imply that under this constrain the photo-voltaic power
plant has highest capacity to sustain sudden change of the indicators as
specified in this analysis.
In general, it can be stated that this demonstration shows the catastrophic
event depends on all potential sudden change of the indicators. It is a toll for
the assessment of the potential of hazard event and stability evaluation.
Photovoltaic power plants require time dependent control in order to have
constant justification of the potential catastrophic events. In particular the
appropriate selection of the indicators may be very important for the
qualitative validation of the Resilience Index for the assessment of the
photovoltaic power plant system.
It should be emphasized that the principle idea in resilience engineering
stem from the recognition that failue does not always stem from malfunction
or poor design. Instead, many adverse effects stem from the network
interaction and adaption that are often necessary for complex systems to be in
―real world‖
Energy resilience is the ability of the energy
system to provide and
The sustainability change in time is defined as the resilience of the system.
It describes the safety capacity of the system. With the monitoring of the
sustainability change of the system in time, it can be used as the diagnostic
parameter of safety the system.
R
EFERENCE
[1]
Photovoltaic Principle,
http://www.our-energy.com
