Two interacting populations of coyotes and roadrunners can be modeled by the recursive equations c ( t + 1 ) = 0.75 r ( t ) r ( t + 1 ) = − 1.5 c ( t ) + 2.25 r ( t ) For each of the initial populations given in parts (a) through (c), find closed formulas for c ( t ) and r ( t ) . a. c ( 0 ) = 100 , r ( 0 ) = 200 b. c ( 0 ) = r ( 0 ) = 100 c. c ( 0 ) = 500 , r ( 0 ) = 700
Two interacting populations of coyotes and roadrunners can be modeled by the recursive equations c ( t + 1 ) = 0.75 r ( t ) r ( t + 1 ) = − 1.5 c ( t ) + 2.25 r ( t ) For each of the initial populations given in parts (a) through (c), find closed formulas for c ( t ) and r ( t ) . a. c ( 0 ) = 100 , r ( 0 ) = 200 b. c ( 0 ) = r ( 0 ) = 100 c. c ( 0 ) = 500 , r ( 0 ) = 700
Solution Summary: The author explains how the two recursive equations can be modelled.
Two interacting populations of coyotes and roadrunners can be modeled by the recursive equations
c
(
t
+
1
)
=
0.75
r
(
t
)
r
(
t
+
1
)
=
−
1.5
c
(
t
)
+
2.25
r
(
t
)
For each of the initial populations given in parts (a) through (c), find closed formulas for
c
(
t
)
and
r
(
t
)
. a.
c
(
0
)
=
100
,
r
(
0
)
=
200
b.
c
(
0
)
=
r
(
0
)
=
100
c.
c
(
0
)
=
500
,
r
(
0
)
=
700
Use Pascal's triangle to expand the binomial
(6m+2)^2
Listen
A falling object travels a distance given by the formula d = 6t + 9t2 where d is in feet
and t is the time in seconds. How many seconds will it take for the object to travel
112 feet? Round answer to 2 decimal places. (Write the number, not the units).
Your Answer:
Solve by the quadratic formula or completing the square to obtain exact solutions.
2
e
104
OA) -16±3√6
B) 8±√10
O c) -8±√10
OD) 8±3√√6
U
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