Multi-step Methods - Differential Equations
Card 1 of 4
The two-step Adams-Bashforth method of approximation uses the approximation scheme
.
Given that
and
, use the Adams-Bashforth method to approximate
for
with a step size of 
The two-step Adams-Bashforth method of approximation uses the approximation scheme .
Given that and
, use the Adams-Bashforth method to approximate
for
with a step size of
Tap to reveal answer
In this problem, we're given two points, so we can start plugging in immediately. If we were not, we could approximate
by using the explicit Euler method on
.
Plugging into
, we have

.
Note, our approximation likely won't be very good with such large a time step, but the process doesn't change regardless of the accuracy.

In this problem, we're given two points, so we can start plugging in immediately. If we were not, we could approximate by using the explicit Euler method on
.
Plugging into , we have
.
Note, our approximation likely won't be very good with such large a time step, but the process doesn't change regardless of the accuracy.
← Didn't Know|Knew It →
The two-step Adams-Bashforth method of approximation uses the approximation scheme
.
Given that
and
, use the Adams-Bashforth method to approximate
for
with a step size of 
The two-step Adams-Bashforth method of approximation uses the approximation scheme .
Given that and
, use the Adams-Bashforth method to approximate
for
with a step size of
Tap to reveal answer
In this problem, we're given two points, so we can start plugging in immediately. If we were not, we could approximate
by using the explicit Euler method on
.
Plugging into
, we have

.
Note, our approximation likely won't be very good with such large a time step, but the process doesn't change regardless of the accuracy.

In this problem, we're given two points, so we can start plugging in immediately. If we were not, we could approximate by using the explicit Euler method on
.
Plugging into , we have
.
Note, our approximation likely won't be very good with such large a time step, but the process doesn't change regardless of the accuracy.
← Didn't Know|Knew It →
The two-step Adams-Bashforth method of approximation uses the approximation scheme
.
Given that
and
, use the Adams-Bashforth method to approximate
for
with a step size of 
The two-step Adams-Bashforth method of approximation uses the approximation scheme .
Given that and
, use the Adams-Bashforth method to approximate
for
with a step size of
Tap to reveal answer
In this problem, we're given two points, so we can start plugging in immediately. If we were not, we could approximate
by using the explicit Euler method on
.
Plugging into
, we have

.
Note, our approximation likely won't be very good with such large a time step, but the process doesn't change regardless of the accuracy.

In this problem, we're given two points, so we can start plugging in immediately. If we were not, we could approximate by using the explicit Euler method on
.
Plugging into , we have
.
Note, our approximation likely won't be very good with such large a time step, but the process doesn't change regardless of the accuracy.
← Didn't Know|Knew It →
The two-step Adams-Bashforth method of approximation uses the approximation scheme
.
Given that
and
, use the Adams-Bashforth method to approximate
for
with a step size of 
The two-step Adams-Bashforth method of approximation uses the approximation scheme .
Given that and
, use the Adams-Bashforth method to approximate
for
with a step size of
Tap to reveal answer
In this problem, we're given two points, so we can start plugging in immediately. If we were not, we could approximate
by using the explicit Euler method on
.
Plugging into
, we have

.
Note, our approximation likely won't be very good with such large a time step, but the process doesn't change regardless of the accuracy.

In this problem, we're given two points, so we can start plugging in immediately. If we were not, we could approximate by using the explicit Euler method on
.
Plugging into , we have
.
Note, our approximation likely won't be very good with such large a time step, but the process doesn't change regardless of the accuracy.
← Didn't Know|Knew It →