comparewith = [list]

A list of method-submethod pairs; the method specified in the method option will be compared graphically with these methods. This option may only be used if output is set to either plot or information.

It must be of the form

comparewith = [[method_1, submethod_1], [method_2, submethod_2]]

If either method lacks applicable submethods, the corresponding submethod_n entry should be omitted.

Lists of all supported methods and their submethods are found in the InitialValueProblem help page, under the descriptions for the method and submethod options, respectively.

digits = posint

The number of digits to which the returned values will be rounded (using evalf). The default value is 4.

numsteps = posint

The number of steps used for the chosen numerical method. This option determines the static step size for each iteration in the algorithm. The default value is 5.

order = posint

The order of the Taylor polynomial used. The default value is 3.

output = solution, Error, plot, information

Controls what information is returned by this procedure. The default value is solution:

output = solution returns the computed value of $y\left(t\right)$ at $t$ = b;

output = Error returns the absolute error of $y\left(t\right)$ at $t$ = b;

output = plot returns a plot of the approximate (Taylor) solution and the solution from one of Maple's best numeric DE solvers; and

output = information returns an array of the values of $t$, Maple's numeric solution, the approximations of $y\left(t\right)$ as computed using this method and the absolute error between these at each iteration.

plotoptions = list

The plot options. This option is used only when output = plot is specified.

Given an initial-value problem consisting of an ordinary differential equation ODE, a range a <= t <= b, and an initial condition y(a) = c, the Taylor command computes an approximate value of y(b) by expanding y(t) into a Taylor polynomial at each step along the interval.

If the second calling sequence is used, the independent variable t will be inferred from ODE.

The endpoints a and b must be expressions that can be evaluated to floating-point numbers. The initial condition IC must be of the form y(a)=c, where c can be evaluated to a floating-point number.

The Taylor command is a shortcut for calling the InitialValueProblem command with the method = taylor option.

To approximate the solution to an initial-value problem using a method other than the Taylor Method, see InitialValueProblem.

$\mathrm{with}\left(\mathrm{Student}\left[\mathrm{NumericalAnalysis}\right]\right)\&colon;$

$\mathrm{Taylor}\left(\mathrm{diff}\left(y\left(t\right)\&comma;t\right)=\cos \left(t\right)\&comma;y\left(0\right)=0.5\&comma;t=3\right)$

$0.6235$

$\mathrm{Taylor}\left(\mathrm{diff}\left(y\left(t\right)\&comma;t\right)=y\left(t\right)+t^2\&comma;y\left(1\right)=3.10\&comma;t=4\&comma;\mathrm{order}=5\&comma;\mathrm{output}=\mathrm{Error}\right)$

$0.03161$

$\mathrm{Taylor}\left(\mathrm{diff}\left(y\left(t\right)\&comma;t\right)=\cos \left(t\right)\&comma;y\left(0\right)=0.5\&comma;t=3\&comma;\mathrm{output}=\mathrm{plot}\right)$