Index
Note: Page numbers followed by “f” denote figures; “t” tables.
A
Absorbing chains
conditional expectation,
conditional probability,
crab vacancy chain,
7t,
11t
disjoint events,
first return probability,
geometric distribution,
7–8
Markov chain study,
probability of eventual absorption,
social mobility model,
10
Absorbing state,
Adams, John Quincy,
29–30
Algal patches
using diffusion equation,
193
reproductive ability,
195
American gray squirrel,
197
Animal coat markings,
210
Hamilton’s proposal,
27–28
mathematical convenience,
30
minimizing sum of squared differences,
31
Aureococcus anophagefferens (
A.a.),
171
B
independent random samples,
90
conditional probability,
80
conditional statements,
77
defendant’s fallacy,
85–86
mathematical details,
94–95
Ben Franklin’s aphorism,
132
Binomial distribution,
115
biochemical interactions,
176
biochemical reactions,
177f
fourth-order characteristic polynomial,
184f
oral blood thinning drug,
181
C
Central limit theorem,
95,
125
Chaotic dynamics/randomness
attractors for biological systems,
168
mimic actual measles events,
165
Chi-squared test (χ
2 test),
110
chi-squared distribution,
117
empirical distribution,
117
zero mean and unit variance,
117
household refuse collection,
63
Coenobita clypeatus (C. clypeatus),
Coin-tossing experiment,
111,
119
Poisson distribution,
103
sample spaces in probability,
101
colonoscopy effectiveness,
82
Competitive exclusion,
155
Conditional probability,
80
Contested-garment principle,
33
Crabs and criminals
C. clypeatus,
country home,
crab mobility, ,
data-gathering effort,
larger-scale problems in sociology,
mathematical model of movement,
queuing,
recidivist,
social mobility,
States,
D
Delbrück–Luria experiment,
116
Dictyostelium discoideum (
D. discoideum),
210
conservation-of-mass argument,
190–191
diffusion-driven instability,
209–210
quantity calculation,
189
source function calculation,
191–192
two-dimensional flow,
192
coin-tossing experiment,
112
theoretical and actual data comparison,
111–112
Drug–placebo experiment,
86
E
Edge-routing problems,
72
Empirical verification,
49
Konigsberg bridges,
63–64
Extrasensory perception (ESP),
88–89
F
Fire companies, deployment of
often-conflicting interests,
59
repositioning, illustration of,
60–61
response neighborhoods,
60
short-term advantage,
60–61
Fire companies operation,
43
Fire companies, optimal deployment of
often-conflicting interests,
59
repositioning, illustration of,
60–61
response neighborhoods,
60
short-term advantage,
60–61
equilibrium hypothesis,
54
equilibrium probability,
56–57
firefighting units delay,
55
multiple-dispatch strategy,
58
Poisson approximation,
55
Poisson processes in tandem,
55
Fire safety and precautions
geographic distribution,
39
Fish harvesting model,
139,
140
anchovies and sardines,
145
fish harvesting model equations,
150
nonlinear fishery equations,
152
Peruvian anchovy fishery,
145
sardines and species,
140
stable cyclic trajectory,
151
stable equilibrium values,
145f
G
Gauss’s linking formula,
229
Geometric distribution,
Gray squirrel spread
American gray squirrel,
197
critical minimum speed calculations,
203
diffusion and spatial dependence,
199
population densities,
198
second-order equation,
201
H
Hamilton, Alexander,
27–28
Hamilton’s proposal,
27–28
Hypergeometric distribution,
107
I
Integer-programming problem,
71
Inverse square-root law
average number of units,
48
empirical verification,
49
Poisson-distributed fire companies,
45
spatial Poisson distribution,
44–45
J
James–Stein approximation (JS approximation),
90
K
Konigsberg bridges,
63–65
L
Linearized equations, Jacobian matrix of,
148,
150
Linearized system, Jacobian matrix of,
176,
199
Log-normal distribution,
128,
132
Loopy DNA
cross-sectional torus slice,
222
helical curve winding,
222f
plane slicing torus,
223f
ribbon model with different values,
224f
unit vector calculation equations,
223
M
Manpower scheduling
admissible recreation schedules,
23
advantageous weekend break,
24
available workers and demand mismatch,
22–23
compactly in matrix notation,
20
compromise solution,
24–26
constraining relations,
20
existing rotating schedule change,
23
integer programming formulation,
26
scheduling workers in perspective,
19
30-week rotating schedule,
24,
25t
Market volatility
Bear-Stearns near-collapse,
133–134
mean variance analysis,
134
power laws and fat tails,
133
self-enforcing process,
134
Markov chain,
Maximum sustainable yield,
143
Measles epidemics
disease contact rate,
161
epidemic model trajectories,
162,
163f
Memoryless property,
42–43
Multiple-dispatch strategy,
58
Multiplicative effect,
132
N
Nash competitive strategy,
156
O
conditional probability,
129
power law distributions,
128
self-organized criticality,
131
top-heavy power function,
130
Oral blood thinning drug,
181
P
Pagarus longicarpus (P. longicarpus),
Pari delicto principle,
34–35
Pattern formation in biology
amoeba aggregation onset,
211f
intuitive demonstration,
210f
Turing’s reaction–diffusion model,
210
Peruvian anchovy fishery,
145
Poisson approximation,
108
fire alarm response times,
110
coin-tossing experiment,
111
fire department operations,
110
random processes, characteristic,
109
Poisson events
conditional probability,
42
fire companies operation,
43
independent increments,
40–41
independent Poisson processes,
42–43
nonnegative and integer-valued random,
40
probability distribution of random variable,
41
spatial counting process,
44
stationary increments,
41
Political districting,
37
asymptotic relationship,
126
energy in wind turbulence,
127
first-order differential equation,
127
log-normal distribution,
128
Predator-mediated coexistence,
169
single attracting equilibrium,
169–171
two pray, one predator model,
170f
Public services
apportionment problem,
18
fair allocation of scarce resources,
18–19
mathematical details,
35–36
mathematical framework,
17
nonpartisan mathematical approach,
19
representatives and direct taxes,
18
Q
R
Rabid foxes
differential equation,
206
traveling-wave solutions,
204
quantity calculation,
189
source function calculation,
191–192
two-dimensional flow,
192
Recidivism
Markov chain model conditions,
13–14
one-step transition matrix,
13
probability of recidivism,
14
recidivism different estimates,
14
transitions between states,
12
Response neighborhoods,
60,
60f
Restricted-access fishery
fish density and harvesting effort,
152
unstable equilbria and cyclic behavior,
146–149
S
Self-enforcing process,
134
Self-organized criticality,
131
Simplifying assumption,
51
vector space approach,
97–98
Skeptical Bayesians,
86–90
garden-variety statistical technique,
87
level of significance,
87
posterior probability,
88
Slime molds
diffusive flux with diffusivity,
215
instability, threshold condition for,
217
oscillatory solution,
216
Social mobility,
absorbing state,
in crab vacancy chain, ,
7t
Markov chain model, ,
P. longicarpus,
Spatial Poisson approximation,
109
Spatial Poisson process,
44
Standard trigonometric formula,
49
Stationary increments,
41
Stein–James paradox,
96–97
Street sweeping
directed-graph network representation,
69f
edge-routing problems,
72
household refuse collection,
68
integer-programming problem,
71
with mechanical brooms,
67
negative and positive polarity,
70
one-way and two-way street,
68f
total demand and supply,
70
travel times between supply and demand nodes,
70,
70t
urban street network,
68–69
Stripes and splotches
independent variables,
212
no-flux boundary conditions,
213
nonlinear reaction–diffusion equations,
211
stripes and splotches formation,
212f
time-independent solution,
213
Turing’s reaction–diffusion hypothesis,
214
T
Talmud and Madoff’s scheme,
31
contested-garment principle,
33
contested-garment problem,
32
fairness criterion,
32–33
finding corresponding division,
32
Mishnah arbitrating claims,
31,
32t,
33
pari delicto principle,
34–35
two-person contested garment rule,
33
Temporal Poisson process,
113
Traffic congestion equation,
204f
Transition matrix,
Transitions between states
absorbing states,
nonabsorbing states,
random walk with absorbing barriers,
state of system,
two-step transition between states,
5–6,
Traveling-wave function
for different values,
196f
Turing’s reaction–diffusion model,
210,
214
U
Urban grid, encumbrance of,
49–50
V
Vehicle scheduling
daily and weekly schedules,
74
feasible truck schedule,
73
graph chromatic number,
74
schedules selection,
73–74
service-frequency requirements,
74–75
six-times-a-week sites,
74
tour graph with tour assignments,
75–76,
75f
cubic characteristic polynomial,
176
virus-free equilibrium,
176
W
Z