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Apr 8, 2022

Index for Objective Resilience: Objective Processes

Publication: Objective Resilience: Objective Processes

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Note: Page numbers followed by f and t indicate figures and tables.
ABET (Accreditation Board for Engineering and Technology)
83
adjacency matrix
146
applications using network models with
148t. See also dependency tables
agent-based models
170
applications in interdependency studies
172t–174t
Aspen
170
Aspen-EE
170
CIMS models
170
SMART II
170. See also interaction rules
aggregate supply and demand tools
180
curves
185f
studies for interdependent systems
186t. See also interaction rules
AI for Disaster Response (AIDR)
242
Alliance for National and Community Resilience (ANCR)
192
ant-colony optimization (ACO)
242
artificial intelligence (AI)
232–233, 243–244. See also machine learning
ASCE's Sustainable Procurement for Infrastructure
82
Aspen
170. See also agent-based models
Aspen-EE
170. See also agent-based models
automatic water-level recorder (AWLR)
240
autoregressive moving-average (ARMA)
3
availability
19, 49. See also reliability
Bag of Words model
241
Barlow–Proschan IM
40. See also importance measure
Bayesian network (BN)
24, 270
–based approach
175
studies using
178t–179t. See also interaction rules;
resilient infrastructure system modeling
Birnbaum IM (BIM)
39
built environment
81
cascading failures
133. See also interdependent functionality
causal-loop diagrams
171. See also interaction rules
Center for Risk-based Community Resilience Planning in 2015 (CRBCRP)
192
Centers for Disease Control and Prevention (CDC)
255
CIMS models
170. See also agent-based models
city resilience
257–259. See also resilience
Climate and Resilience (CR)
83
Climate and Risk (CR)
96
closed-circuit television (CCTV)
240
Coastal Resilience Center of Excellence (CRC)
192
communication:
-related subsystems
302
technologies
266
community
286
lifelines
288
Community Resilience Lifeline Systems (CRLS) Methodology
283, 288, 330, 333, 336
advantages
325–326
approach
311
best practices
333, 336
communication lifeline
302–303
communications lifeline operations
316f, 317f, 318f
communications subsystems
314t–315t
Community Lifelines Framework
291–311
damage by Hurricane Katrina
296f
damage by Hurricane Maria
284f
energy lifeline
296–297, 300–301
energy lifeline operations
311f, 312f, 313f
equations
321–324
examples
326–330, 328t–329t, 330f, 331t–332t, 333f, 334t–335t, 336f
FEMA resilience framework
285–288
FEMA-sponsored generator
297f
food, water, and shelter lifeline locations and operations
300f, 302f, 303f
food, water, and shelter subsystems
298t–299t
food, water, sheltering lifeline
292, 295
hazardous material lifeline
306–307
hazardous materials operations
325f
hazardous materials subsystems
324t
health and medical lifeline
296
health and medical lifeline operations
306f, 307f
health and medical subsystems
304t–305t
inputs from user
312–313, 317–318
Kolob Reservoir
301f
landfall by Hurricane Maria
284f
lifeline of energy subsystems
308t–310t
limitations
326
linking behavior of resilience components with lifelines
291
resilience components
289–291
safety and security lifeline
291–292
safety and security subsystems
293t–294t
shelters
292
transportation lifeline
303
transportation operations
321f, 322f, 323f
transportation subsystems
319t–320t
Vigilant Guard South Carolina exercise
295f
complex network theory (CNT)
264, 266–267
graph theory vs.
266f. See also resilient infrastructure system modeling
composite importance measure (CIM)
43. See also importance measure
computable general equilibrium (CGE)
164
constrained optimization simulation
175, 180
studies using
181t–183t. See also interaction rules
construction
108
energy and emissions of
109
energy consumption in
109–110
envision credits for reductions in energy consumption
111f
envision credits for reductions in materials
111f
correlation-based tables
141, 146
studies using
144t–145t. See also dependency tables
critical infrastructure (CI)
25
Critical Infrastructure Modeling Systems (CIMS)
170
critical infrastructure protection/decision support system (CIS/DSS)
171
Critical Infrastructure Resilience Institute (CIRI)
192
critical infrastructure systems (CISs)
127, 206–207, 259
dependencies and interdependencies between
131f
improving recovery and resilience of
128
infrastructure interconnections
127
infrastructure sector
130
interdependencies
128, 263–264
interdependency studies
128
in PRAISys
200
PRAISys project
128
publications
129f
and resilience
262–263. See also interdependent functionality
criticality IM (CI)
40
cyberattack detection
29. See also system resilience
cyber resilience recovery model (CRRM)
29
Dempster–Shafer theory
271. See also resilient infrastructure system modeling
Department of Environment and Infrastructure (DEI)
113
Department of Homeland Security (DHS)
283
dependencies:
classification of
132
and interdependencies
132
intersystem dependencies
133. See also interdependent functionality
dependency and interdependency
130–133, 131f;
classifications
132, 133–135;
comparison of models
185, 187, 188t–191t;
dependency tables
136;
at different levels
132;
implementation in PRAISys platform
201t–203t;
implemented as tables and/or through interaction rules
135f;
interaction rules
164;
models
135, 185;
resilience assessment frameworks and tools
193t–198t;
restoration-related
200. See also interdependent functionality
dependency matrix
149. See also dependency tables
dependency tables
136
adjacency matrix
146
applications using network models
148t
correlation-based tables
141, 146
dependency matrix
149
descriptive interdependency table based on TLC
139t–140t
descriptive terms
136
dynamic inoperability input–output models
163
economic theory–based tables
150, 162–164
graph theory–based matrices
146–150
inoperability
162
inoperability input–output model
162–163
input–output model
150
qualitative tables
136, 138
quantitative tables
138
studies using correlation-based tables
144t–145t
studies using economic theory–based methods
154t–161t
studies using empirical approaches
137t
studies using network models
151t–153t
studies using survey-based quantitative tables
142t–143t
survey-based quantitative tables
138, 141. See also dependency and interdependency models
descriptive interdependency table based on TLC
139t–140t. See also dependency tables
descriptive modeling
242
descriptive terms
136. See also dependency tables
differential importance measures (DIM)
43. See also importance measure
disaster
286
-resilience-of-place model
30. See also system resilience
discrete-event simulation
164–170
models
1–2
studies using
166t–169t. See also interaction rules
dynamic inoperability input–output models (DIIMs)
163. See also dependency tables
economic system resilience
34. See also system resilience
economic theory
268–270
–based models
206
–based tables
150, 162–164
studies using
154t–161t. See also dependency tables;
interdependent functionality;
resilient infrastructure system modeling
electric transmission system
132
emergencies
286
emergency detection
238–243
emergency management
242–243
in real world
240
in virtual world
240–242. See also machine learning
emergency operation centers (EOCs)
242
eNetworks
266
environmental footprints
81
Environmental Product Declaration (EPD)
110
Envision
83, 117
benefits of
89
categories and credits
84f
credit categories
85f
ENV SP credential
87f
and NFIP CRS
87–88
points vs. levels of achievement
85f
resilience credits
86f
score
87. See also sustainability to resilience
Envision Sustainability Professional (ENV SP)
87
ERAC
40
escalating failures
133. See also interdependent functionality
event tree analysis (ETA)
165
evidence theory
271. See also resilient infrastructure system modeling
extreme events
253
consequences of
254
human-induced events
253
natural induced events
253
and power outages
254, 255t, 256f
types of
253. See also resilience
Fast Fourier Transform (FFT)
6
fault tree analysis (FTA)
165
Federal Emergency Management Agency (FEMA)
283
communities
286
community lifelines
288
disaster
286
emergencies
286
federal disaster declarations
286f
PPD-8
287
primary mission
285
recovery
287
relation between NRF and NDRF
287f
resilience framework
285–288
-sponsored generator
297f
4Rs
1
Fusselly–Vesely importance (FVIM)
40
game theory
272. See also resilient infrastructure system modeling
gamma process
38. See also system recovery
generalized GIM (GGIM)
42. See also importance measure
geospatial risk and resilience assessment (GRRASP)
199
global greenhouse gas (GHG)
101
Google Knowledge Graph
233
graph theory–based matrices
146–150
studies using network models with
151t–153t. See also dependency tables
Green Globes
88, 89. See also sustainability to resilience
Griffith importance measure (GIM)
42. See also importance measure
Hampton Roads Sanitation District (HRSD)
112
hazards
21, 25–26
automatic attack prediction method
25
hurricanes
237
man-made
24–25, 237
natural hazards
23–24
predicting
236–238
predicting volcano eruptions
237
resilience
27
risk
24
system's failure rate
22, 26. See also reliability;
resilience
system recovery
system resilience
human–computer interaction
245–246. See also machine learning
hybrid model
271. See also resilient infrastructure system modeling
image segmentation
238
importance measure (IM)
39
availability and resilience of two systems
50f
Barlow–Proschan IM
40
BIM
39–40
of components in repairable systems
41, 42
extended version of NIM
41
failure and repair rates of units
49t
importance of units in System 1 over time
51f, 52t
Natvig IM
41
for nonrepairable systems
43–44
proposed importance measures
43
for repairable systems
44
resilience and importance measure of repairable systems
48–52
resilience of two systems over time
50f
of units
47–48t
upgrading function IM
41. See also system recovery
infrastructure
130
component
130
interconnections
127
systems
25, 262–264. See also resilience
inoperability
162. See also dependency tables
inoperability input–output model (IIM)
162–163. See also dependency tables
input–output (I–O) model
150. See also dependency tables
Institute for Sustainable Infrastructure (ISI)
83, 112
integrated importance measure (IIM)
43. See also importance measure
interaction rules
164
agent-based model applications in interdependency studies
172t–174t
agent-based models
170–171
Aspen
170
Aspen-EE
170
Bayesian network–based approach
175
causal-loop diagrams
171
CIMS models
170
constrained optimization simulation
175, 180
discrete-event simulations
164–170
FTA and ETA
165
population mobility models
180, 185
SMART II
170
studies using aggregate supply & demand models
186t
studies using Bayesian network–based approach
178t–179t
studies using constrained optimization simulation
181t–183t
studies using discrete-event simulations
166t–169t
studies using population mobility model
184t
studies using system dynamics approach
176t–177t
supply and demand curves
185f
supply and demand tools
180
system dynamics approach
171, 175. See also dependency and interdependency models
interdependency model in community resilience assessment
187, 192
PRAISys platform
199–204. See also interdependent functionality
interdependent functionality
127, 206–207
application of interdependency model
187, 192–204
cascading and escalating failures
133
concepts and background
129
discussion
204–205
economic theory–based models
206
interdependent infrastructure
132
intersystem dependencies
133
recommended practice
205–206
resilience
129–130
resilience assessment frameworks and tools
193t–198t
Resilience Index
130. See also critical infrastructure systems;
dependency and interdependency
interdependent infrastructure
132. See also interdependent functionality
International Code Council (ICC)
192
Internet of Things (IoT)
233
intersystem dependencies
133. See also interdependent functionality
joint adjacency matrix (JA)
149
joint importance measure (JIM)
43. See also importance measure
joint probability matrix (JCP)
149
Leadership (LD)
83, 103
LEED
88, 89. See also sustainability to resilience
Life-Cycle Cost Analysis (LCCA)
82
machine learning (ML)
231, 245
artificial intelligence
232–233, 243–244
Bag of Words model
241
classifiers
237, 241
complex decision-making under emergency conditions
247
concept of disaster resilience
232f
data flow for detection application of landslide
236f
data integration problem
235–236
detecting and managing emergencies
238–239
in disaster management applications
233
discussion
245–247
evolution of structural element
244f
facial recognition system
238
functionality of system
231
Google Knowledge Graph
233
hand shape biometric system
239f
human–computer interaction
245–246
image segmentation
238
model identification
235–238
Natural Language Processing
241
in ontology learning
234
OWL
234
predicting hazards
236–238
Qatar Computing Research Institute
242
RDF and RDFS
234
recommendations
247
recursive neural tensor network model
241
resilience
231–232
resilience and role of
245
semantic representation of emergency
233–235
semantic web
233
solution generation and decision making
243–245
traditional warning systems
240
unsupervised learning
241. See also emergency detection
Markov models
270–271. See also resilient infrastructure system modeling
matrix model
271. See also resilient infrastructure system modeling
mean residual life (MRL)
17
mean time between failures (MTBF)
18, 19
mean time to failure (MTTF)
17
Mechanically Stabilized Earth (MSE)
97
mixed-integer programming model
272. See also resilient infrastructure system modeling
Monte Carlo simulation
2–3. See also uncertainty quantification in objective resilience
multiagent simulation (MAS)
264, 267
components of
268f. See also resilient infrastructure system modeling
Multidisciplinary Center for Earthquake Engineering Research (MCEER)
199
national disaster recovery framework (NDRF)
287
NRF and
287f
National Floodplain Insurance Program's Community Rating System (NFIP CRS)
87–88
National Response Framework (NRF)
285, 287
and NDRF
287f
Natural Language Processing
241. See also machine learning
Natural World (NW)
83
Natvig IM
41. See also importance measure
network infrastructure
141
nongovernmental organizations (NGOs)
289
non-repairable systems:
importance measure
43–44
metrics of
17, 18. See also repairable systems
one-dimensional, univariate (1V-1D)
3
Optimization Study (OS)
113
overall system's failure rate
22, 26. See also hazards
OWL
234. See also machine learning
Part of Speech (POS)
241
Petri nets
165
polyvinyl chloride (PVCO)
21
population mobility models
180, 185
studies using
184t. See also interaction rules
PRAISys (Probabilistic Resilience Assessment of Interdependent Systems)
128
PRAISys platform
199
damage-related interdependencies
200
functionality-related interdependencies
204
hazard-related interdependencies
200. See also dependency and interdependency;
interdependency model in community resilience assessment
Presidential Policy Directive 8 (PPD-8)
285
probability density function (PDF)
18
probability distribution function (PDF)
3
products
17
Qatar Computing Research Institute
242
Quake-Catcher Network
235
qualitative tables
136, 138. See also dependency tables
Quality of Life (QL)
83
quantitative tables
138. See also dependency tables
RDF-Schema (RDFS)
234
recovery
287
recursive neural tensor network model
241. See also machine learning
reliability
17, 45, 53
availability
19, 49
function of system
45
metrics model
19
metrics of non-repairable systems
17, 18
metrics of repairable systems
18–19
MTBF
19
products
17
and redundancy
30
-related performance measurements
33
of two systems over time
47f. See also hazards
resilience
system recovery;
system resilience
renewable sources
99
repairable systems:
availability and resilience of two systems over time
50f
failure and repair rates of units in two systems
49t
IM of components in
41, 42
importance measure
44
importance of units in System 1 over time
51f, 52t
reliability metrics of
18–19
resilience and availability of two systems over time
51f
resilience and importance measure of
48–52. See also non-repairable systems
Resilience Index
130
resilience
17, 26, 53, 19–21, 129–130, 253
application in different fields
52–53
assessing interdependence of CISs to assess risk
260
best practices
273–274
calculation
33
capabilities of
262
of CI
29
city
257–259
concept of
256–259
critical infrastructure system interdependence
263–264
critical infrastructure systems and
262–263
curve
35
of economic organization
27
extreme events
253–255, 255t, 256f
failure and repair rates of units in two systems
49t
four dimensions of
261–262, 261f
importance of units in System 1 over time
51f, 52t, and
importance measure of repairable systems
48–52;
infrastructure systems
262–264;
metrics
261;
problem
3;
qualitative and semi-quantitative framework of
28–30;
quantification
30–34, 261–262;
and reliability of two systems over time
46f;
research trends and challenges
259;
resilient infrastructure system modeling and simulation
264–272;
resilient system
256, 257f;
risk
259, 260f;
seismic
28;
simple resilience metrics
261;
stress–strain relationship under tensile load
20f;
system
255–256;
of two systems over time
50f, 51f;
vulnerability
259. See also hazards;
reliability
;
system recovery
;
system resilience
resiliency
83
resilient infrastructure system modeling
264
Bayesian networks
270
complex network theory
264, 266–267
components of MAS model
268f
Dempster–Shafer theory or evidence theory
271
economic theory
268–270
empirical methods
272
game theory
272
graph theory vs. CNT
266f
hybrid model
271
Markov models
270–271
matrix model
271
mixed-integer programming model
272
multiagent simulation
267, 268f
optimization
272
system assessment and control
272, 265f
system dynamics
268, 269f
system simulation
264–272, 265f. See also resilience
resilient system
256, 257f. See also resilience
Resource Allocation (RA)
83
resource description framework (RDF)
234
risk
259. See also resilience
seismic resilience
28. See also system resilience
semantic web
233
service-oriented networks
27
shelters
292
SITES
89. See also sustainability to resilience
smart grid system
44f
SMART II
170. See also agent-based models
social networks
240–241
spectral representation method
3–8. See also uncertainty quantification in objective resilience
survey-based quantitative tables
138, 141
studies using
142t–143t. See also dependency tables
sustainability
83
applications
108–110, 111f
ASCE's Sustainable Procurement for Infrastructure
82
assessment tools
83
climate change
101–103
conceptualizations of sustainable development
94f
construction
108–110, 111f
development of management processes
93
development of sustainable infrastructure
82
distribution of envision credits
96f
durability and adaptability
103–105
energy inputs and emissions of building
115t
Envision
83–89, 99
Green Globes
88, 89
guidance on community-wide resilience planning
83
implementation
111–116
Kunia country farms project
100f
LEED
88, 89
low-level road project
99f
objective of infrastructure development
89
objective resilience and sustainability
117
production and manufacturing
97–100
project management processes
91f
Project management process groups
93f
project processes in civil engineering design
92f
project processes in life cycle of civil engineering projects
92f
rate of degradation
90
recommendations
117–118
resilience through
89
resiliency
83
risk management
91–97
SITES
89
snow creek stream environment zone restoration project
98f
South Los Angeles wetlands park
107f
Sun valley watershed multi-benefit project
102f
sustainability through project management process groups
95f
sustainability to resilience
81, 116
sustainable rating system selection flowchart
88f
sustaining innovation
106–108
synergies
105–106
system recovery
105–106
trends in life-cycle performance of infrastructure systems
90f
Tucannon river wind farm
105f
unit cost, energy, and emission analysis of soil compaction
114t
West park equalization facility
102f
sustainable infrastructure:
ASCE's Sustainable Procurement for Infrastructure
82
development
82
Envision rating system for
83–89
objective of infrastructure development
89. See also sustainability to resilience
system dynamics (SD)
264, 268, 269f;
approach
171, 175;
studies using
176t–177t. See also interaction rules;
resilient infrastructure system modeling
system failures
21
system recovery
37
Barlow–Proschan IM
40
BIM
39–40
extended version of NIM
41
gamma distribution
38
gamma process
38
IM of components in repairable systems
41, 42
Natvig IM
41
proposed importance measures
43–44
recovery sequence
38–43
stochastic recovery process
37–38
structure function
39
upgrading function IM
41. See also hazards;
reliability
resilience;
system resilience
system resilience
26, 36, 255–256
assessment
29
cyberattack detection
29
disaster-resilience-of-place model
30
economic
34
failure rates of units in two systems
45f
game-theoretic approach
34
network resilience assessment
29
proposed resilience quantification
34–37
system performance behavior
31f
system resilience quantification
45–47
system's recovery ability
27. See also hazards;
reliability
resilience
; system recovery
system simulation
264–272, 265f. See also resilient infrastructure system modeling
traditional warning systems
240
uncertainties
1
uncertainty quantification in objective resilience
1
advantage of FFT technique
8
discrete-event simulation models
1–2
estimated vs. fitted evolutionary power spectra
10f
finite-element predictions of bearing capacity for soil deposit
12f
Monte Carlo simulation
2–3
random heterogeneous soil properties
13
recommended practices and examples
8
seismic ground motion acceleration time histories
9–10
simulated stochastic process
6
spectral representation method
3–8
two NGA-West strong ground motion database seismic records
9f
wind velocity fluctuations modeled as stochastic wave
11f
wind velocity time histories
10–12
universal generating function (UGF)
43. See also importance measure
unsupervised learning
241. See also machine learning
upgrading function IM (UFI)
41
vulnerability
259. See also resilience
weapons of mass destruction (WMD)
289
web ontology language
234
wide area monitoring system (WAMS)
29

Information & Authors

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Published In

Go to Objective Resilience
Objective Resilience: Objective Processes
Pages: 339 - 349
Editor: Mohammed M. Ettouney, Ph.D. https://orcid.org/0000-0001-7287-5090
ISBN (Print): 978-0-7844-1589-4
ISBN (Online): 978-0-7844-8375-6

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Published online: Apr 8, 2022

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