TY - CHAP
T1 - Resilient control system metrics
AU - McJunkin, Timothy R.
AU - Rieger, Craig
N1 - Publisher Copyright:
© Springer Nature Switzerland AG 2019.
PY - 2019
Y1 - 2019
N2 - Resilience of a system, particularly critical infrastructure, is of great interest to utilities and stakeholders. Consequences of natural or man-made events (e.g., Superstorm Sandy, the sequence of storms affecting the Caribbean and coast of the United States in 2017, and the Ukrainian power grid attack) have led to emphasis and increased interest in improving resilience. However, measurement of resilience in an absolute or relative manner has been achieved in a patchwork manner. This chapter will provide the description of metric development for an electricity distribution network and begin with a definition of resilience. That definition must meet the expectation of being understandable in its linguistic form that sets a goal that would lead to systems that would stand up to large disturbances of many possible types in a manner that is quantifiable by a set of metrics. The metrics that measure a system’s absolute or relative improvement is then developed for that purpose. Many notional definitions and attempts at resilience metrics formation have been coined by venerable organizations, such as the EPRI, ICS-CERT, DHS, National Academy of Sciences, and others. Common words among these sources are the ability to withstand or resist, survive, and respond expeditiously such that operations or life returns to normal as quickly as possible. To make resilience quantifiable, a proper definition of resilience and the relationship between it and reliability will facilitate development of useful resilience metrics and resilient grid architectures.
AB - Resilience of a system, particularly critical infrastructure, is of great interest to utilities and stakeholders. Consequences of natural or man-made events (e.g., Superstorm Sandy, the sequence of storms affecting the Caribbean and coast of the United States in 2017, and the Ukrainian power grid attack) have led to emphasis and increased interest in improving resilience. However, measurement of resilience in an absolute or relative manner has been achieved in a patchwork manner. This chapter will provide the description of metric development for an electricity distribution network and begin with a definition of resilience. That definition must meet the expectation of being understandable in its linguistic form that sets a goal that would lead to systems that would stand up to large disturbances of many possible types in a manner that is quantifiable by a set of metrics. The metrics that measure a system’s absolute or relative improvement is then developed for that purpose. Many notional definitions and attempts at resilience metrics formation have been coined by venerable organizations, such as the EPRI, ICS-CERT, DHS, National Academy of Sciences, and others. Common words among these sources are the ability to withstand or resist, survive, and respond expeditiously such that operations or life returns to normal as quickly as possible. To make resilience quantifiable, a proper definition of resilience and the relationship between it and reliability will facilitate development of useful resilience metrics and resilient grid architectures.
UR - https://www.scopus.com/pages/publications/85072084399
U2 - 10.1007/978-3-030-18214-4_12
DO - 10.1007/978-3-030-18214-4_12
M3 - Chapter
AN - SCOPUS:85072084399
T3 - Advances in Information Security
SP - 255
EP - 276
BT - Advances in Information Security
PB - Springer New York LLC
ER -