Steps to find the volume of a solid with square cross-sections given two bounding curves.

Find the intersection points of the curves (bounds). 2. Determine the side length $s = f(x) - g(x)$ . 3. Square the side length: $A(x) = s^2$ . 4. Integrate: $V = \int_a^b A(x) dx$ .

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Steps to find the volume of a solid with square cross-sections given two bounding curves.

Find the intersection points of the curves (bounds). 2. Determine the side length $s = f(x) - g(x)$ . 3. Square the side length: $A(x) = s^2$ . 4. Integrate: $V = \int_a^b A(x) dx$ .

Steps to find the volume of a solid with rectangular cross-sections perpendicular to the y-axis.

Express bounding curves as functions of y. 2. Find the intersection points (bounds). 3. Determine width and height as functions of y. 4. Find area: $A(y) = w*h$ . 5. Integrate: $V = \int_c^d A(y) dy$ .

How to find the volume of a solid with square cross sections if given $y = x^2$ and $y = 4$ ?

Find bounds: $x = -2, 2$ . 2. $s = 4-x^2$ . 3. $A(x) = (4-x^2)^2$ . 4. $V = \int_{-2}^2 (4-x^2)^2 dx$ .

How to set up the integral for the volume of a solid with rectangular cross sections of height 3, perpendicular to the x-axis, bounded by $y = x$ and $y = x^2$ ?

Find bounds: $x = 0, 1$ . 2. $w = x - x^2$ . 3. $h = 3$ . 4. $V = \int_0^1 3(x - x^2) dx$ .

How to find the volume if the base is bounded by $y=x^3$ , $y=0$ , $x=1$ and the cross sections are squares perpendicular to the x-axis?

Find bounds: $x = 0, 1$ . 2. $s = x^3 - 0 = x^3$ . 3. $A(x) = (x^3)^2 = x^6$ . 4. $V = \int_0^1 x^6 dx$ .

How to find the volume if the base is bounded by $x=y^2$ , $x=4$ and the cross sections are rectangles with height $y$ perpendicular to the y-axis?

Find bounds: $y = -2, 2$ . 2. $w = 4 - y^2$ . 3. $h = y$ . 4. $V = \int_{-2}^2 y(4 - y^2) dy$ .

How do you determine the limits of integration when the region is bounded by $y = x^2$ and $y = sqrt{x}$ ?

Set $x^2 = \sqrt{x}$ and solve for $x$ to find the intersection points, which are the limits of integration.

What is the general strategy for solving volume problems with known cross-sections?

Visualize the solid. 2. Determine the shape and area of the cross-section. 3. Find the limits of integration. 4. Set up and evaluate the integral.

If the cross-sections are perpendicular to the y-axis, how do you express the bounding curves?

Express the curves as functions of y, i.e., $x = f(y)$ and $x = g(y)$ .

How do you handle a problem where the height of the rectangular cross-section is given as a function of x?

Include the height function in the area function $A(x) = w(x) cdot h(x)$ and integrate with respect to x.

What are the differences between setting up a volume integral with cross-sections perpendicular to the x-axis vs. the y-axis?

x-axis: Integrate with respect to x, functions in terms of x. y-axis: Integrate with respect to y, functions in terms of y.

What are the differences between finding the volume with square vs. rectangular cross-sections?

Square: Need to find the side length 's'. Rectangular: Need to find both width 'w' and height 'h'.

Compare finding the area between two curves and finding the volume with known cross-sections.

Area: Integrate the difference between two functions. Volume: Integrate the area of a cross-section.

What are the differences between disk/washer method and volume with known cross sections?

Disk/Washer: Revolution around an axis, circular cross-sections. Cross Sections: Various shapes, no revolution required.

Compare finding the volume when given a single bounding curve versus two bounding curves.

Single Curve: The axis often acts as the second boundary. Two Curves: Need to find the difference between the functions.

What are the differences between setting up the volume integral when the cross sections are perpendicular to the x-axis vs y-axis?

x-axis: Integrate with respect to x, functions in terms of x. y-axis: Integrate with respect to y, functions in terms of y.

Compare finding the volume with square cross sections and rectangular cross sections.

Square: Need to find the side length 's' and use $A(x) = s^2$ . Rectangular: Need to find both width 'w' and height 'h' and use $A(x) = w * h$ .

Compare finding the area between two curves and finding the volume with known cross sections.

Area: Integrate the difference between two functions, resulting in a two-dimensional area. Volume: Integrate the area of a cross-section, resulting in a three-dimensional volume.

What is the key difference between problems where the cross-sections are perpendicular to the x-axis versus the y-axis?

x-axis: Integrate with respect to x, functions in terms of x. y-axis: Integrate with respect to y, functions in terms of y.

Compare the complexity of finding the volume with square cross sections versus rectangular cross sections.

Square: Involves finding one dimension (side length) and squaring it. Rectangular: Involves finding two dimensions (width and height).

Volume of a solid with known cross-sections.

$V = \int_a^b A(x) dx$

Volume of a solid with square cross-sections.

$V = \int_a^b s^2 dx$

Volume of a solid with rectangular cross-sections.

$V = \int_a^b w cdot h dx$

Area of a square.

$A = s^2$

Area of a rectangle.

$A = w cdot h$

How do you find the side length 's' of a square cross section when given two bounding curves f(x) and g(x), where f(x) is above g(x)?

$s = f(x) - g(x)$

How do you find the width 'w' of a rectangular cross section perpendicular to the y-axis when given two bounding curves f(y) and g(y), where f(y) is to the right of g(y)?

$w = f(y) - g(y)$

How to find the intersection points of two curves, $f(x)$ and $g(x)$ ?

Set $f(x) = g(x)$ and solve for $x$ .

If integrating with respect to 'y', what does the volume formula become for general cross sections?

$V = \int_c^d A(y) dy$

How do you express $y = x^3$ as a function of y?

$x = \sqrt[3]{y}$

All Flashcards

Steps to find the volume of a solid with square cross-sections given two bounding curves.

Find the intersection points of the curves (bounds). 2. Determine the side length $s = f(x) - g(x)$ . 3. Square the side length: $A(x) = s^2$ . 4. Integrate: $V = \int_a^b A(x) dx$ .

Steps to find the volume of a solid with rectangular cross-sections perpendicular to the y-axis.

Express bounding curves as functions of y. 2. Find the intersection points (bounds). 3. Determine width and height as functions of y. 4. Find area: $A(y) = w*h$ . 5. Integrate: $V = \int_c^d A(y) dy$ .

How to find the volume of a solid with square cross sections if given $y = x^2$ and $y = 4$ ?

Find bounds: $x = -2, 2$ . 2. $s = 4-x^2$ . 3. $A(x) = (4-x^2)^2$ . 4. $V = \int_{-2}^2 (4-x^2)^2 dx$ .

How to set up the integral for the volume of a solid with rectangular cross sections of height 3, perpendicular to the x-axis, bounded by $y = x$ and $y = x^2$ ?

Find bounds: $x = 0, 1$ . 2. $w = x - x^2$ . 3. $h = 3$ . 4. $V = \int_0^1 3(x - x^2) dx$ .

How to find the volume if the base is bounded by $y=x^3$ , $y=0$ , $x=1$ and the cross sections are squares perpendicular to the x-axis?

Find bounds: $x = 0, 1$ . 2. $s = x^3 - 0 = x^3$ . 3. $A(x) = (x^3)^2 = x^6$ . 4. $V = \int_0^1 x^6 dx$ .

How to find the volume if the base is bounded by $x=y^2$ , $x=4$ and the cross sections are rectangles with height $y$ perpendicular to the y-axis?

Find bounds: $y = -2, 2$ . 2. $w = 4 - y^2$ . 3. $h = y$ . 4. $V = \int_{-2}^2 y(4 - y^2) dy$ .

How do you determine the limits of integration when the region is bounded by $y = x^2$ and $y = sqrt{x}$ ?

Set $x^2 = \sqrt{x}$ and solve for $x$ to find the intersection points, which are the limits of integration.

What is the general strategy for solving volume problems with known cross-sections?

Visualize the solid. 2. Determine the shape and area of the cross-section. 3. Find the limits of integration. 4. Set up and evaluate the integral.