Gradians to Binary Degrees Converter

Gradiansgon

Binary Degrees

Calculation: Gradians ➜ Binary Degrees

Calculation will be done after you enter a valid input.

What is the formula to convert from Gradians to Binary Degrees?

The formula to convert angle value from the unit of Gradians to the unit of Binary Degrees is:

Angle_{(Binary Degrees)} = Angle_(Gradians) / 1.5625

Gradians unit in Angle

Gradians, also known as gons or grades, divide a circle into 400 equal parts, with each part representing one gradian. This unit is mainly used in surveying and civil engineering, where it provides a straightforward way to work with angles that are multiples of 10 or 100. Gradians offer an alternative to degrees and radians, especially in applications that require precise angular measurements.

Binary Degrees unit in Angle

Binary degrees are a unit of angular measurement used in certain digital and computational applications, where a full circle is divided into 256 equal parts. Each binary degree represents a small fraction of a complete rotation, making this unit particularly useful in digital systems that require precise angular calculations, such as in computer graphics and robotics.

Frequently Asked Questions (FAQs) about "Gradians ➜ Binary Degrees" Conversion

1. What is the conversion formula from Gradians to Binary Degrees?

The formula to convert Gradians to Binary Degrees in Angle is:

Gradians / 1.5625

2. How do I convert from Gradians to Binary Degrees given a value in Gradians units?

To convert Angle from Gradians to Binary Degrees, you can use the following formula:

Gradians / 1.5625

For example, if you have a value in Gradians, you substitute that value in place of Gradians in the above formula, and solve the mathematical expression to get the equivalent value in Binary Degrees.

{
  "conversion": "gradians-to-binary_degrees",
  "x_slug": "gradians",
  "y_slug": "binary_degrees",
  "x": "gon",
  "y": "°",
  "x_desc": "Gradians",
  "y_desc": "Binary Degrees",
  "category": "Angle",
  "symbol": "m",
  "formula": "x / 1.5625",
  "precision": 11,
  "units": [
    [
      "degrees",
      "Degrees",
      "°"
    ],
    [
      "radians",
      "Radians",
      "rad"
    ],
    [
      "gradians",
      "Gradians",
      "gon"
    ],
    [
      "minutes",
      "Minutes",
      "'"
    ],
    [
      "seconds",
      "Seconds",
      "\""
    ],
    [
      "turns",
      "Turns",
      "turn"
    ],
    [
      "circles",
      "Circles",
      "circle"
    ],
    [
      "binary_degrees",
      "Binary Degrees",
      "°"
    ],
    [
      "compass_points",
      "Compass Points",
      "compass point"
    ],
    [
      "diameter_part",
      "Diameter Parts",
      "diameter part"
    ],
    [
      "hexacontades",
      "Hexa-Contades",
      "hexacontade"
    ],
    [
      "hour_angles",
      "Hour Angles",
      "hour angle"
    ],
    [
      "right_angles",
      "Right Angles",
      "right angle"
    ],
    [
      "milliradians",
      "Milli-radians",
      "mrad"
    ],
    [
      "quadrants",
      "Quadrants",
      "quadrant"
    ],
    [
      "sextants",
      "Sextants",
      "sextant"
    ],
    [
      "pi_radians",
      "π Radians",
      "π radians"
    ],
    [
      "zam",
      "Zam",
      "zam"
    ]
  ],
  "x_long_desc": "Gradians, also known as gons or grades, divide a circle into 400 equal parts, with each part representing one gradian. This unit is mainly used in surveying and civil engineering, where it provides a straightforward way to work with angles that are multiples of 10 or 100. Gradians offer an alternative to degrees and radians, especially in applications that require precise angular measurements.",
  "y_long_desc": "Binary degrees are a unit of angular measurement used in certain digital and computational applications, where a full circle is divided into 256 equal parts. Each binary degree represents a small fraction of a complete rotation, making this unit particularly useful in digital systems that require precise angular calculations, such as in computer graphics and robotics."
}