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Area and Volume

- Calculus
- Absolute Maxima and Minima
- Accumulation Function
- Accumulation Problems
- Algebraic Functions
- Alternating Series
- Application of Derivatives
- Approximating Areas
- Arc Length of a Curve
- Arithmetic Series
- Average Value of a Function
- Calculus of Parametric Curves
- Candidate Test
- Combining Differentiation Rules
- Continuity
- Continuity Over an Interval
- Convergence Tests
- Cost and Revenue
- Derivative Functions
- Derivative of Exponential Function
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- Derivatives
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- Derivatives and the Shape of a Graph
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- Derivatives of Polar Functions
- Derivatives of Sin, Cos and Tan
- Determining Volumes by Slicing
- Disk Method
- Divergence Test
- Euler's Method
- Evaluating a Definite Integral
- Evaluation Theorem
- Exponential Functions
- Finding Limits
- Finding Limits of Specific Functions
- First Derivative Test
- Function Transformations
- Geometric Series
- Growth Rate of Functions
- Higher-Order Derivatives
- Hyperbolic Functions
- Implicit Differentiation Tangent Line
- Improper Integrals
- Initial Value Problem Differential Equations
- Integral Test
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- Integrals of Motion
- Integrating Even and Odd Functions
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- Surface Area of Revolution
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- Vector Valued Function
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- Washer Method
- Decision Maths
- Geometry
- 2 Dimensional Figures
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- 3-Dimensional Figures
- Altitude
- Angles in Circles
- Arc Measures
- Area and Volume
- Area of Circles
- Area of Circular Sector
- Area of Parallelograms
- Area of Plane Figures
- Area of Rectangles
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- Area of Rhombus
- Area of Trapezoid
- Area of a Kite
- Composition
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- HL ASA and AAS
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- Linear Measure and Precision
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- Perpendicular Bisector
- Plane Geometry
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- Projections
- Properties of Chords
- Proportionality Theorems
- Pythagoras Theorem
- Rectangle
- Reflection in Geometry
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- Right Triangles
- Rotations
- SSS and SAS
- Segment Length
- Similarity
- Similarity Transformations
- Special quadrilaterals
- Squares
- Surface Area of Cone
- Surface Area of Cylinder
- Surface Area of Prism
- Surface Area of Sphere
- Surface Area of a Solid
- Surface of Pyramids
- Symmetry
- Translations
- Trapezoids
- Triangle Inequalities
- Triangles
- Using Similar Polygons
- Vector Addition
- Vector Product
- Volume of Cone
- Volume of Cylinder
- Volume of Pyramid
- Volume of Solid
- Volume of Sphere
- Volume of prisms
- Mechanics Maths
- Acceleration and Time
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- Assumptions
- Calculus Kinematics
- Coefficient of Friction
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- Algebra
- Algebraic Fractions
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- Angle Measure
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- Approximation and Estimation
- Area and Circumference of a Circle
- Area and Perimeter of Quadrilaterals
- Area of Triangles
- Arithmetic Sequences
- Average Rate of Change
- Bijective Functions
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- Combination of Functions
- Common Factors
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- Completing the Square
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- Complex Numbers
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- Coordinates in Four Quadrants
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- Ellipse
- Equation of Line in 3D
- Equation of a Perpendicular Bisector
- Equation of a circle
- Equations
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- Estimation in Real Life
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- Even Functions
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- Finding Maxima and Minima Using Derivatives
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- Finding the Area
- Forms of Quadratic Functions
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- Function Basics
- Functional Analysis
- Functions
- Fundamental Counting Principle
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- Generating Terms of a Sequence
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- Greatest Common Divisor
- Growth and Decay
- Growth of Functions
- Highest Common Factor
- Hyperbolas
- Imaginary Unit and Polar Bijection
- Implicit differentiation
- Inductive Reasoning
- Inequalities Maths
- Infinite geometric series
- Injective functions
- Instantaneous Rate of Change
- Integers
- Integrating Polynomials
- Integrating Trig Functions
- Integrating e^x and 1/x
- Integration
- Integration Using Partial Fractions
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- Integration of Hyperbolic Functions
- Interest
- Inverse Hyperbolic Functions
- Inverse and Joint Variation
- Inverse functions
- Iterative Methods
- Law of Cosines in Algebra
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- Limits of Accuracy
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- Properties of Exponents
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- Ratio
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- Rewriting Formulas and Equations
- Roots of Complex Numbers
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- Rounding
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- SSS Theorem
- Scale Drawings and Maps
- Scale Factors
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- Sector of a Circle
- Segment of a Circle
- Sequences
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- Similar Triangles
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- Simple Interest
- Simplifying Fractions
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- Simultaneous Equations
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- Solving Simultaneous Equations Using Matrices
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- Special Products
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- Substraction and addition of fractions
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- Surds
- Surjective functions
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- Tangent of a Circle
- The Quadratic Formula and the Discriminant
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- Transformations of Graphs
- Translations of Trigonometric Functions
- Triangle Rules
- Triangle trigonometry
- Trigonometric Functions
- Trigonometric Functions of General Angles
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- Turning Points
- Types of Functions
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- Discrete Random Variable
- Distributions
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- Frequency Polygons
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- Large Data Set
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- Methods of Data Collection
- Normal Distribution
- Normal Distribution Hypothesis Test
- Probability
- Probability Calculations
- Probability Distribution
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- Quantitative Variables
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- Scatter Graphs
- Single Variable Data
- Standard Deviation
- Standard Normal Distribution
- Statistical Measures
- Tree Diagram
- Type I Error
- Type II Error
- Types of Data in Statistics
- Venn Diagrams

Suppose you are redecorating your room and need to know the amount of floor space available. So, you measure the floor which is, in fact, finding the **area** of that room. Now, suppose you plan to fill up your pool with water. You measure how much water is needed to fill the pool by measuring its **volume**.

In geometry, it is important to know the space covered by certain **2-dimensional** and **3-dimensional** figures. We can determine this space by calculating **area and volume** based on the type of figure. Here we will understand the basic concept of area and volume as related to various types of figures.

The total space occupied by the two-dimensional surface of an object or a flat shape is called an ** area**.

Many different area formulas are available to determine the area of various two-dimensional shapes. We can also determine a shape's area by counting the number of unit squares that cover the entire surface of the object. This method helps us to learn and understand the concept of area. See the image below which displays the concept of the square unit. You will find that area formulas are easier and faster to use, however. The unit of area is always measured in square units like square centimeters, square meters, square inches, and so on.

Here are some facts about area to keep in mind:

- The area and perimeter of shapes are
**different**calculations and can often be confused with one another. - The area of any figure is mostly calculated based on the terms like side, length, base, height, and radius.
- The area of two congruent (identical) figures will be the same, but sometimes two non-congruent (not identical) figures might have the same area.

Let's take a look at some of the different formulas for area of basic and common geometric figures, including:

- Area of rectangle
- Area of square
- Area of triangle
- Area of circle
- Area of parallelogram

We can calculate the area of a rectangle with width w and height h as follows:

**Area of Rectangle**

Squares have four sides which are all equal in length. So, we can calculate the area with the given formula:

**Area of Square**

where a is the length of side

We can calculate the area of the triangle with the help of its altitude h and its base b.

**Area of Triangle**

The space occupied by the circle can be calculated based on its radius.

**Area of circle**

where r is the radius of the circle

A parallelogram is a figure with opposite sides as a pair of parallel lines.

**Area of parallelogram**

where b is the base and h is the height of the parallelogram

The term **surface area** is associated with three-dimensional figures and objects. However, its concept is essentially the same as **area** in that it measures the size of the surface using square units like inches squared (in^{2}). Formulas for surface areas differ based on the type of 3-dimensional object.

The total area occupied by the outer surfaces of any 3-dimensional object is called the ** surface area** of that object.

In other words, the area occupied by all the faces and sides of any 3D object is its surface area. For any figure, surface area can be classified into three types:

- Lateral surface area
- Curved surface area
- Total surface area

The three types of surface area (lateral, curved, and total) are explained here.

The surface area of the entire 3D shape excluding the surface area of the base and top is known as the **lateral surface area**.

The surface area of all curved surfaces of the 3D shape is known as the **curved surface area**.

Sometimes, the lateral surface area and the curved surface area are actually referring to the same part of the 3D shape. This is the case for shapes with curved surfaces like cylinders and cones, for example. Shapes like cubes, however, do not have curved surface area, and this term does not apply.

Here in the figure of the cylinder, the gray surface is the lateral surface, which is the surface that surrounds the cylinder. When calculating the **lateral surface area**, we will consider the gray color surface shown but not the white top surface or white bottom surface of the cylinder.

The total area of all surfaces and sides of an object is called the **total surface area**.

In other words, we include any and all surfaces of an object when calculating the total surface area, as opposed to the lateral surface area. Usually, we simply refer to the total surface area as surface area.

Here, we consider the surface area of both the lateral surface (light gray color) and top & base (dark gray color) when we calculate the total surface area of this cylinder.

Let's take a look at some of the surface area formulas for common three-dimensional figures.

A cube is a three-dimensional figure consisting of six square faces. The surface area of a cube can be obtained by finding the area of all six faces and summing them up together. For the lateral surface area of the cube, we take only four faces into consideration, eliminating the top and bottom sides.

The formula for the surface area of a cube is as follows:

**Total surface area of cube**

**Lateral surface area of cube**

where a is the length of all sides

A cuboid is a three-dimensional figure with all six faces rectangular. The total surface area and lateral surface of the cuboid can be calculated in the same manner as a cube. However, for a cuboid, instead of using the same measurement for all six faces, we consider and measure the different faces separately. Hence, we calculate the surface area of the cuboid in terms of length l, width w, and height h.

The formula for the surface area of a cuboid is as follows:

**Total surface area of cuboid**

**Lateral surface area of cuboid**

A cylinder is a 3D shape with two flat circular faces, one on the top and one on the bottom, attached at the opposite ends of a curved face. A simple example is a pipe with both of the ends sealed or closed. The surface area of a cylinder is the sum of the surface areas of both circular bases and the curved surface area. When determining only the lateral or curved surface area, just the curved surface of the cylinder is considered.

The formula for the surface area of a cylinder is as follows:

**Total surface area of cylinder**

**Lateral surface area of cylinder**

where r is the radius of circular base and h is the height of a cylinder

A sphere is the three-dimensional representation of a circle. As spheres have only one overall surface and no other faces, discussing its lateral surface area doesn't make sense, as it would be the same as its total surface area. Therefore, we only calculate the total surface area for spheres.

The formula for the surface area of a cuboid is as follows:

**Total surface area of sphere**

where r is the radius of the sphere

Any three-dimensional object in nature occupies **space**. So, the space occupied by that object is called its **volume.**

The space enclosed within the object or the space occupied by any three-dimensional solid object is known as ** volume**.

To measure the volume we divide the occupied space into equal cubical units and calculate the total occupied cubical units, The unit of volume can be in a cubic centimeter, cubic meter, cubic inches, and so on.

Let's understand some of the formulas of volume for familiar 3D objects and shapes.

As all the sides in the cube are of equal length, we can calculate the volume of a cube using the formula given below:

**Volume of cube**

where a is the length of sides for all faces

Unlike a cube, a cuboid has sides of different measures. So, we calculate the volume in the terms of length l, width w, and height h. The volume formula for a cuboid is as follows:

**Volume of cuboid**

As the cylinder is formed from its circular bases and the distance between them, we consider the radius r of the circular base and height h of the cylinder when calculating its volume. The formula is as follows:

**Volume of cylinder**

As it can be used in some applications to approximate the shape of Earth, we have a special interest in the sphere, the three-dimensional representation of a circle. The volume of a sphere can be derived using multiple methods, including the Archimedes formula and Cavalieri's principle, for example. For now, we will just take a brief glance at its commonly accepted volume formula:

**Volume of sphere**

where r is the radius of the sphere

- The total space occupied by the 2-dimensional surface of an object or a flat shape is called area. Area uses square units, like feet squared or meters squared.
- The area of two congruent (identical) figures will be the same, but sometimes two non-congruent figures might have the same area.
- The total area occupied by the outer surfaces of any 3-dimensional object is called the surface area of that object. Surface area uses square units.
- Surface can be classified into three types: lateral surface area, curved surface area, and total surface area.
- The space enclosed within the object or the space occupied by any three-dimensional solid object is known as volume.

The surface area and volume of a cube can be calculated as

**Total Surface area of cube = 6a**^{2}

**Volume of Cube = a ^{3}**

We can find area of all shapes by multiplying its length and width.

More about Area and Volume

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