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Geometry Solids Sphere Calculator

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How to Find the Volume and Surface Area of a Sphere with Steps and Examples

Geometry Solids Sphere Calculator

What is Geometry Solids Sphere Calculator?

The Geometry Solids Sphere Calculator is a quick online tool that allows you to find the volume and surface area of any sphere by simply entering its radius. It's designed to give instant, step-by-step results using standard maths formulas.


Formula or Logic Behind Geometry Solids Sphere Calculator

The calculator uses basic geometry formulas to determine the properties of a sphere. For volume, the formula is V = (4/3) × π × r³, where r is the radius of the sphere.
For surface area (Total and Curved), the formula is TSA = CSA = 4 × π × r².
By entering the sphere's radius, the tool applies these formulas and displays an easy-to-understand solution.


Precomputed Volumes and Surface Areas for Common Sphere Radii

Radius (cm) Volume (cm³) Surface Area (cm²)
14.1912.57
233.5150.27
3113.10113.10
4268.08201.06
5523.60314.16
6904.32452.39
71436.76615.75
82144.66804.25
93053.631017.88
104188.791256.64

Steps to Use the Geometry Solids Sphere Calculator

  • Enter the required number or values
  • Click on the 'Calculate' button
  • Get instant results

Why Use Vedantu’s Geometry Solids Sphere Calculator?

This calculator is very easy to use, mobile-friendly, and designed for quick results. Students and teachers trust it for accuracy, and it follows standard geometry formulas used in schools and exams.


Real-life Applications of Geometry Solids Sphere Calculator

The Geometry Solids Sphere Calculator helps in academic tasks, such as solving maths homework and competitive exam problems. It is also useful in real-world scenarios like calculating the volume needed for filling spherical tanks, designing sports equipment, or estimating surface areas in manufacturing. This tool is practical for daily needs and learning. Many students also use it alongside Vedantu calculators like Volume of Cuboid Calculator and Cylinder Calculator for comparing different solid shapes.


Properties and Definition of a Sphere

A sphere is a three-dimensional geometrical figure where every point on the surface is at the same distance from the center. Spheres have no edges or corners and only one curved surface. Common examples are balls, marbles, the globe, and bubbles.


Sphere Formulas at a Glance

Quantity Formula
Volume (V) V = (4/3) × π × r³
Total Surface Area (TSA) TSA = 4 × π × r²
Curved Surface Area (CSA) CSA = 4 × π × r²

10 Real-life Examples of Spheres

  • Basketball
  • Football (Soccer ball)
  • Globe of the Earth
  • Marble
  • Soap bubble
  • Orange
  • Tennis ball
  • Ping pong ball
  • Ball bearings
  • Crystal ball

Internal Links for Further Learning

Explore more with the HCF Calculator, the Prime Numbers List, and the Algebra Topics for other important maths concepts.


Vedantu’s Geometry Solids Sphere Calculator is checked by maths experts, matches Indian school syllabi, and helps millions of students master geometry the smart way.

FAQs on Geometry Solids Sphere Calculator

1. What is a sphere in geometry?

A sphere is a perfectly round three-dimensional geometric shape where all points on its surface are equidistant from a central point. Think of it like a perfectly round ball. It has no edges or corners, only a curved surface.

2. How do you find the volume of a sphere?

The volume of a sphere is calculated using the formula: V = (4/3)πr³, where 'r' represents the radius of the sphere (the distance from the center to any point on the surface). Simply cube the radius, multiply by π (pi, approximately 3.14159), and then multiply by 4/3.

3. What is the surface area formula for a sphere?

The surface area of a sphere is calculated using the formula: A = 4πr², where 'r' is the radius of the sphere. Square the radius, multiply by π, and then multiply by 4.

4. What are the properties of a sphere?

Key properties of a sphere include: It's a three-dimensional shape; it has a curved surface with no edges or corners; all points on its surface are equidistant from the center; and its cross-sections are circles.

5. What are some examples of spheres in real life?

Many everyday objects approximate spheres. Examples include: balls (basketball, baseball, etc.), planets (Earth, Mars, etc.), oranges, bubbles, and globes.

6. How do I use a sphere calculator?

Most sphere calculators require you to input the radius of the sphere. After entering the radius, simply click the 'calculate' button to find the volume and surface area. The calculator will then provide the results along with the calculations used.

7. What is the difference between the total surface area and curved surface area of a sphere?

For a sphere, the total surface area (TSA) and curved surface area (CSA) are the same. This is because a sphere has only one surface, which is curved. Both are calculated using the formula: 4πr².

8. How is the volume of a sphere related to its radius?

The volume of a sphere is directly proportional to the cube of its radius (r³). This means that if you double the radius, the volume increases by a factor of eight (2³ = 8).

9. What are some applications of sphere geometry?

Sphere geometry has many applications, including: calculating the volume of spherical tanks, determining the surface area needed to cover a spherical object, understanding planetary motion, and in various engineering and scientific calculations.

10. Can I use a sphere calculator for objects that are only approximately spherical?

While a sphere calculator provides precise results for perfect spheres, you can use it for approximate calculations with nearly spherical objects. Keep in mind that the accuracy of the results will depend on how closely the object resembles a perfect sphere. For highly irregular shapes, more sophisticated methods are needed.

11. What is the formula for the volume of a hemisphere?

A hemisphere is half a sphere. Therefore, the volume of a hemisphere is half the volume of a sphere: V = (2/3)πr³

12. How is pi (π) used in sphere calculations?

Pi (π), approximately 3.14159, is a fundamental constant in geometry representing the ratio of a circle's circumference to its diameter. It appears in the formulas for both the volume and surface area of a sphere because these calculations are inherently linked to circles.