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This calculator converts parametric equations into their corresponding Cartesian form. Parametric equations define both the x and y coordinates in terms of a common variable (often t). This calculator solves for the Cartesian equation y = f(x), which represents the relationship between x and y in a non-parametric form.
x(t): The parametric equation for x in terms of t. For example, you can input an equation like 2 * t + 1.
y(t): The parametric equation for y in terms of t. For example, you can input 3 * t + 4.
The Cartesian form y = f(x) is derived by solving the parametric equations for t, then substituting the solution for t into the equation for y(t). The process is as follows:
Step 1: Solve x(t) for t
Step 2: Substitute the value of t from Step 1 into y(t) to express y in terms of x.
The result is a Cartesian equation that relates y and x directly, eliminating the need for the parameter t.
Our Parametric Equation to Cartesian Form Calculator offers several benefits:
Here are a few examples of how our calculator can be used:
The parametric equations are:
x(t) = 2 * t + 1 y(t) = 3 * t + 4
Step 1: Solve x(t) = 2 * t + 1 for t:
t = (x - 1) / 2
Step 2: Substitute t = (x - 1) / 2 into y(t) = 3 * t + 4:
y = 3 * ((x - 1) / 2) + 4 y = (3x - 3) / 2 + 4 y = (3x + 5) / 2
The Cartesian form of the equation is:
y = (3x + 5) / 2
Parametric equations express the coordinates (x, y) of a curve in terms of a third variable, often denoted as t (the parameter). These equations allow us to describe curves that are difficult to represent using a single equation of y in terms of x.
To convert parametric equations to Cartesian form, you need to solve one of the parametric equations (usually x(t)) for the parameter t, and then substitute this expression for t into the other equation (usually y(t)) to obtain a direct relationship between x and y.
If x(t) is not easily solvable for t (e.g., if it's a more complex equation), the calculator will provide an error. In such cases, the equation may not have a straightforward Cartesian form, or it may require numerical methods to solve.
You can input linear, quadratic, exponential, or trigonometric functions in parametric form. However, keep in mind that some equations might require more advanced techniques to be fully converted into Cartesian form.