Disks, Washers, and Cross Sections Review

Slides:



Advertisements
Similar presentations
Section Volumes by Slicing
Advertisements

Volumes by Slicing: Disks and Washers
7 Applications of Integration
Volume by Parallel Cross Section; Disks and Washers
DO NOW: Find the volume of the solid generated when the
Section Volumes by Slicing
More on Volumes & Average Function Value. Average On the last test (2), the average of the test was: FYI - there were 35 who scored a 9 or 10, which means.
Applications of Integration Copyright © Cengage Learning. All rights reserved.
Volumes – The Disk Method Lesson 7.2. Revolving a Function Consider a function f(x) on the interval [a, b] Now consider revolving that segment of curve.
7.1 Area Between 2 Curves Objective: To calculate the area between 2 curves. Type 1: The top to bottom curve does not change. a b f(x) g(x) *Vertical.
Volume. Find the volume of the solid formed by revolving the region bounded by the graphs y = x 3 + x + 1, y = 1, and x = 1 about the line x = 2.
SECTION 7.3 Volume. VOLUMES OF AN OBJECT WITH A KNOWN CROSS-SECTION  Think of the formula for the volume of a prism: V = Bh.  The base is a cross-section.
7.1 – 7.3 Review Area and Volume. The function v(t) is the velocity in m/sec of a particle moving along the x-axis. Determine when the particle is moving.
Finding Volumes.
Volume of a Solid by Cross Section Section 5-9. Let be the region bounded by the graphs of x = y 2 and x=9. Find the volume of the solid that has as its.
Review: Volumes of Revolution. x y A 45 o wedge is cut from a cylinder of radius 3 as shown. Find the volume of the wedge. You could slice this wedge.
Section Volumes by Slicing
Section 7.2 Solids of Revolution. 1 st Day Solids with Known Cross Sections.
Do Now: #10 on p.391 Cross section width: Cross section area: Volume:
Volumes of Revolution Day 4 Volumes in Bases. The title is deceiving This section isn’t actually rotations – instead, there will be a shape whose base.
Volume of Cross-Sectional Solids
Solids of Revolution Disk Method
Volume: The Disc Method
How to solve an AP Calculus Problem… Jon Madara, Mark Palli, Eric Rakoczy.
Review 7 Area between curves for x Area between curves for y Volume –area rotated –disks for x and y Volume – area rotated – washers for x and y Volume.
Let R be the region bounded by the curve y = e x/2, the y-axis and the line y = e. 1)Sketch the region R. Include points of intersection. 2) Find the.
Volumes Using Cross-Sections Solids of Revolution Solids Solids not generated by Revolution Examples: Classify the solids.
Finding Volumes Chapter 6.2 February 22, In General: Vertical Cut:Horizontal Cut:
Volumes Lesson 6.2.
Volumes by Slicing 7.3 Solids of Revolution.
Finding Volumes. In General: Vertical Cut:Horizontal Cut:
Volumes by Slicing. disk Find the Volume of revolution using the disk method washer Find the volume of revolution using the washer method shell Find the.
Section Volumes by Slicing 7.3 Solids of Revolution.
Ch. 8 – Applications of Definite Integrals 8.3 – Volumes.
Volume of Regions with cross- sections an off shoot of Disk MethodV =  b a (π r 2 ) dr Area of each cross section (circle) * If you know the cross.
SECTION 7-3-C Volumes of Known Cross - Sections. Recall: Perpendicular to x – axis Perpendicular to y – axis.
 The volume of a known integrable cross- section area A(x) from x = a to x = b is  Common areas:  square: A = s 2 semi-circle: A = ½  r 2 equilateral.
C.2.5b – Volumes of Revolution – Method of Cylinders Calculus – Santowski 6/12/20161Calculus - Santowski.
Calculus 6-R Unit 6 Applications of Integration Review Problems.
7.2 Volume: The Disk Method (Day 3) (Volume of Solids with known Cross- Sections) Objectives: -Students will find the volume of a solid of revolution using.
Drill: Find the area in the 4 th quadrant bounded by y=e x -5.6; Calculator is Allowed! 1) Sketch 2) Highlight 3) X Values 4) Integrate X=? X=0 X=1.723.
7-2 SOLIDS OF REVOLUTION Rizzi – Calc BC. UM…WHAT?  A region rotated about an axis creates a solid of revolution  Visualization Visualization.
Section 7.3: Volume The Last One!!! Objective: Students will be able to… Find the volume of an object using one of the following methods: slicing, disk,
The Disk Method (7.2) February 14th, 2017.
Volumes of solids with known cross sections
7.2 Volume: The Disk Method
In this section, we will learn about: Using integration to find out
Finding Volumes.
Finding Volumes Chapter 6.2 February 22, 2007.
Warm-Up! Find the average value of
Volumes – The Disk Method
Cross Sections Section 7.2.
Solids not generated by Revolution
Volume by Cross Sections
6.4 Integration of exponential reciprocal of x and some trig functions
Chapter 7.2: Volume The Disk Method The Washer Method Cross-sections
6.4 Volumes by Cross Sections
Warm up Find the area of surface formed by revolving the graph of f(x) = 6x3 on the interval [0, 4] about the x-axis.
Volume of Solids with Known Cross Sections
Volume by Cross-sectional Areas A.K.A. - Slicing
Applications Of The Definite Integral
7 Applications of Integration
Warm Up Find the volume of the following shapes (cubic inches)
Area & Volume Chapter 6.1 & 6.2 February 20, 2007.
Chapter 6 Cross Sectional Volume
5 More!.
Calculus 5.9: Volume of a Solid by Plane Slicing
Section Volumes by Slicing
Warm Up Find the volume of the following 3 dimensional shapes.
AP problem back ch 7: skip # 7
Presentation transcript:

Disks, Washers, and Cross Sections Review

Let R be the region in the first quadrant under the graph of Setup but do not evaluate the integral necessary to compute the volume of the solid whose base is the region R and whose cross sections cut by planes perpendicular to the x-axis are squares.

The base of a solid is the circle . Each section of the solid cut by a plane perpendicular to the x-axis is a square with one edge in the base of the solid. Setup but doe not evaluate the integral to find the volume of the solid in terms of a.

Let functions f and g be defined by f(x) = x and , where k is a positive constant If R is the region between the graphs of f and g on the interval [1, 3], setup but do not evaluate an integral expression in terms of k for the volume of the solid generated when R is rotated about the x-axis. Setup up but do not evaluate an integral expression in terms of k for the volume of the solid generated when R is rotated about the horizontal line y = -2.

Let R be the region marked in the first quadrant enclosed by the y-axis and the graphs of as shown in the figure below Setup but do not evaluate the integral representing the volume of the solid generated when R is revolved around the x-axis. R Setup, but do not evaluate the integral representing the volume of the solid whose base is R and whose cross sections perpendicular to the x-axis are squares.

Setup, but do not evaluate, the integral necessary to find the volume of the solid formed when the region bounded by is revolved about the x-axis.

Let R be the region in the first quadrant bounded above by the graph of f(x) = 3 cos x and below by the graph of Setup, but do not evaluate, an integral expression in terms of a single variable for the volume of the solid generated when R is revolved about the x-axis. Let the base of a solid be the region R. If all cross sections perpendicular to the x-axis are equilateral triangles, setup, but do not evaluate, an integral expression of a single variable for the volume of the solid.

The volume of the solid generated by revolving the first quadrant region bounded by the curve and the lines x = ln 3 and y = 1 about the x-axis is a) 2.80 b) 2.83 c) 2.86 d) 2.89 e) 2.92

The base of a solid is a right triangle whose perpendicular sides have lengths 6 and 4. Each plane section of the solid perpendicular to the side of length 6 is a semicircle whose diameter lies in the plane of the triangle. The volume of the solid in cubic units is: a) 2pi b) 4pi c) 8pi d) 16pi e) 24pi