Now that we have introduced the concept of a parameterized curve, our next step is to learn how to work with this concept in the context of calculus. For example, if we know a parameterization of a given curve, is it possible to calculate the slope of a tangent line to the curve? How about the arc length of the curve? Or the area under the curve?<\/p>\r\n
Another scenario: Suppose we would like to represent the location of a baseball after the ball leaves a pitcher\u2019s hand. If the position of the baseball is represented by the plane curve [latex]\\left(x\\left(t\\right),y\\left(t\\right)\\right)[\/latex], then we should be able to use calculus to find the speed of the ball at any given time. Furthermore, we should be able to calculate just how far that ball has traveled as a function of time.<\/p>","rendered":"
Now that we have introduced the concept of a parameterized curve, our next step is to learn how to work with this concept in the context of calculus. For example, if we know a parameterization of a given curve, is it possible to calculate the slope of a tangent line to the curve? How about the arc length of the curve? Or the area under the curve?<\/p>\n
Another scenario: Suppose we would like to represent the location of a baseball after the ball leaves a pitcher\u2019s hand. If the position of the baseball is represented by the plane curve [latex]\\left(x\\left(t\\right),y\\left(t\\right)\\right)[\/latex], then we should be able to use calculus to find the speed of the ball at any given time. Furthermore, we should be able to calculate just how far that ball has traveled as a function of time.<\/p>\n\n\t\t\t Candela Citations<\/h3>\n\t\t\t\t\t