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Simpson's Rule
Calling Sequence
ApproximateInt(f(x), x = a..b, method = simpson, opts)
ApproximateInt(f(x), a..b, method = simpson, opts)
ApproximateInt(Int(f(x), x = a..b), method = simpson, opts)
Parameters
f(x)
-
algebraic expression in variable 'x'
x
name; specify the independent variable
a, b
algebraic expressions; specify the interval
opts
equation(s) of the form option=value where option is one of boxoptions, functionoptions, iterations, method, outline, output, partition, pointoptions, refinement, showarea, showfunction, showpoints, subpartition, view, or Student plot options; specify output options
Description
The ApproximateInt(f(x), x = a..b, method = simpson, opts) command approximates the integral of f(x) from a to b by using Simpson's rule. The first two arguments (function expression and range) can be replaced by a definite integral.
If the independent variable can be uniquely determined from the expression, the parameter x need not be included in the calling sequence.
Given a partition of the interval , Simpson's rule approximates the integral on each subinterval by integrating the quadratic function that interpolates the three points , , and . This value is
In the case that the widths of the subintervals are equal, the approximation can be written as
Traditionally, Simpson's rule is written as: given N where N is an even integer and given equally spaced points , an approximation to the integral is
By default, the interval is divided into equal-sized subintervals.
For the options opts, see the ApproximateInt help page.
This rule can be applied interactively, through the ApproximateInt Tutor.
Examples
See Also
Boole's Rule, Newton-Cotes Rules, plot/options, Simpson's 3/8 Rule, Student, Student plot options, Student[Calculus1], Student[Calculus1][ApproximateInt], Student[Calculus1][ApproximateIntTutor], Student[Calculus1][RiemannSum], Student[Calculus1][VisualizationOverview], Trapezoidal Rule
Download Help Document