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Calculus TI Resources
All of the activities in this FlexBook® resource complement the lessons in our Calculus Student Edition text. Teachers may need to download programs from www.timath.com that will implement or assist with the activities.
What is Calculus?
One-Sided Limits
Create a scatterplot of the data by pressing 2nd[Y =]ENTER and aligning the screen to the right. Create a scatterplot of the data by pressing 2nd[Y =], selecting 1:Plot1, and aligning the screen to the right. Optimizing the volume will help determine the dimension of the box with the largest volume.
Show calculations of the left and right bounds to check if your value that causes the bound exists. One-Sided Bounds www.ck12.org Display left and right bound calculations to verify that your bound value exists.
Move those Chains
Implicit Differentiation
Using any information you can derive from these statements, make a rule to find the derivative of these functions. One way to find the slope of a tangent drawn to the circle at any point(x,y) located on the curve is by taking the derivative of f1(x) and f2(x). Another way to find the slope of a tangent is by finding the derivative of x2+y2=36 using implicit differentiation.
SE Differentiation - TI Use this result to find the slope of the tangent lines tox2+y2=36 at x=2. To find the derivative of a relation F(x,y), take the derivative of y with respect to x from each side of the relation.
Helicopter Bungee Jump
Optimization
Linear Approximations
In this activity, you will explore relative maxima and minima by drawing a tangent to a curve and observing the slope of the tangent. Press APPS, select the Text Editor application and open extreme1. Observe the slope of the tangent and determine the critical number(s) of the function. When the tangent point is to the left of the relative maximum, the slope of the tangent will be positive, negative, or zero.
What about when the touch point is to the right of the relative maximum. For this function, will the slope of the tangent line be positive, negative, or zero when the point of contact is to the left of the relative minimum. What about when the touch point is to the right of the relative minimum.
Change the window settings so that you no longer see the first 4 seconds of the acceleration-time graph. Linear approximation uses a tangent line to estimate the value of the function near the tangent point. Let the graph on the right be the point where the tangent touches the graph, L(x) is the tangent, and f(x) is the function.
Draw horizontal lines from a, f(x) and the intersection of the vertical line with the tangent. What do you notice about the graph of the function and the graph of the tangent line as you get closer to the tangent point? Now we want to ask the same questions if the tangent point is ata=1.
Sum Rectangles
FTC Changed History
This activity is intended to complement Calculus, Chapter 4, Lesson 3. Your challenge is to think of at least two ways to estimate the area bounded by the curve=x2 and thex−axis in the interval [0, 1] using rectangles. all rectangles must have the same width. you must construct all the rectangles using the same methods. the base of each rectangle must lie on the axis axis. In the following problem, you will consider three common techniques that use rectangles to find the approximate area under a curve. Remember that the right endpoint is the thex−value and the height is their right endpoint value on the curve.
To summarize it in the calculator, use Home >F3:Calc >4:Sigma for the command with the format:. expression, variable, lower bound, upper bound). Remember that the left endpoint is the thex−value and the height is their left endpoint value on the curve. How would you draw five rectangles, of equal width, so that their midpoints lie on the curve=x2.
Remember that the center point is the x value and the height is the side value of the center point on the curve. Use the Area Approximation program to examine features graphically to complete this part of the activity. What is the smallest value of the integral, and at what value of x is it reached.
9 means the change of sign of the integral from negative to positive that you saw earlier.
Volume by Cross-Sections
Gateway Arc Length
To find the volume, it is only necessary to multiply the area of the pavement by the depth of the pavement. Then use the Numerical Integral command (nInt) in the Calc menu to find the area of the path. You know that the volume of an object is the area of the base times its height.
If the length of one of the sides of this equilateral triangle is 1 cm, calculate the area. If the cross sections perpendicular to the x−axis are equilateral triangles, what is the volume of the solid? If the cross sections perpendicular to the axis are semicircles, what is the volume of the solid.
What is the volume of a solid if all cross-sections perpendicular to their axis are squares? Let the base of the solid be the area of the first quadrant enclosed by the x-axis and one arc of the graph=sin(x). If all sections perpendicular to the x-axis are squares, then approximately what is the volume of the solid.