Conveersion From 1 to 2 Family Nyc Code
Number Organisation Conversion
There are many methods or techniques which can exist used to convert numbers from one base of operations to another. Nosotros'll demonstrate here the following −
- Decimal to Other Base of operations System
- Other Base System to Decimal
- Other Base System to Non-Decimal
- Shortcut method − Binary to Octal
- Shortcut method − Octal to Binary
- Shortcut method − Binary to Hexadecimal
- Shortcut method − Hexadecimal to Binary
Decimal to Other Base of operations Organisation
Steps
-
Step one − Split the decimal number to be converted by the value of the new base of operations.
-
Step 2 − Go the remainder from Step one equally the rightmost digit (to the lowest degree meaning digit) of new base number.
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Step 3 − Split up the quotient of the previous divide past the new base.
-
Step 4 − Record the remainder from Step 3 as the next digit (to the left) of the new base number.
Repeat Steps three and 4, getting remainders from correct to left, until the quotient becomes cipher in Step 3.
The last remainder thus obtained will be the Most Significant Digit (MSD) of the new base number.
Case −
Decimal Number: 2910
Computing Binary Equivalent −
| Step | Operation | Upshot | Remainder |
|---|---|---|---|
| Step 1 | 29 / 2 | fourteen | 1 |
| Footstep 2 | 14 / ii | seven | 0 |
| Step 3 | 7 / two | 3 | ane |
| Footstep 4 | 3 / 2 | 1 | 1 |
| Step v | 1 / 2 | 0 | one |
As mentioned in Steps 2 and 4, the remainders have to be arranged in the reverse order so that the outset rest becomes the To the lowest degree Significant Digit (LSD) and the last remainder becomes the Well-nigh Significant Digit (MSD).
Decimal Number − 2910 = Binary Number − 11101two.
Other Base System to Decimal Organisation
Steps
-
Step 1 − Determine the cavalcade (positional) value of each digit (this depends on the position of the digit and the base of the number organization).
-
Footstep 2 − Multiply the obtained column values (in Step 1) by the digits in the respective columns.
-
Stride 3 − Sum the products calculated in Footstep two. The total is the equivalent value in decimal.
Case
Binary Number − 111012
Computing Decimal Equivalent −
| Step | Binary Number | Decimal Number |
|---|---|---|
| Step 1 | 111012 | ((1 × ii4) + (one × iiiii) + (ane × 22) + (0 × 2i) + (one × 20))10 |
| Pace 2 | 11101two | (16 + 8 + 4 + 0 + 1)10 |
| Footstep 3 | 111012 | 2910 |
Binary Number − 111012 = Decimal Number − 29x
Other Base System to Non-Decimal Arrangement
Steps
-
Stride 1 − Convert the original number to a decimal number (base 10).
-
Step 2 − Catechumen the decimal number and then obtained to the new base of operations number.
Instance
Octal Number − 258
Computing Binary Equivalent −
Footstep 1 − Convert to Decimal
| Step | Octal Number | Decimal Number |
|---|---|---|
| Footstep 1 | 258 | ((2 × viiiane) + (v × 80))10 |
| Pace ii | 25eight | (16 + 5 )10 |
| Pace 3 | 25viii | 2110 |
Octal Number − 25eight = Decimal Number − 21x
Step 2 − Convert Decimal to Binary
| Step | Operation | Result | Residual |
|---|---|---|---|
| Step 1 | 21 / 2 | 10 | 1 |
| Step 2 | 10 / 2 | 5 | 0 |
| Step 3 | 5 / 2 | 2 | ane |
| Stride iv | two / 2 | 1 | 0 |
| Stride five | 1 / 2 | 0 | 1 |
Decimal Number − 21x = Binary Number − 101012
Octal Number − 258 = Binary Number − 101012
Shortcut method - Binary to Octal
Steps
-
Footstep ane − Separate the binary digits into groups of 3 (starting from the right).
-
Step 2 − Catechumen each group of iii binary digits to one octal digit.
Example
Binary Number − 10101ii
Calculating Octal Equivalent −
| Step | Binary Number | Octal Number |
|---|---|---|
| Step one | 10101two | 010 101 |
| Step two | 101012 | 28 58 |
| Pace three | 101012 | 25eight |
Binary Number − 101012 = Octal Number − 258
Shortcut method - Octal to Binary
Steps
-
Stride 1 − Convert each octal digit to a 3 digit binary number (the octal digits may be treated every bit decimal for this conversion).
-
Stride ii − Combine all the resulting binary groups (of 3 digits each) into a single binary number.
Instance
Octal Number − 25viii
Computing Binary Equivalent −
| Step | Octal Number | Binary Number |
|---|---|---|
| Pace 1 | 25eight | 2x 510 |
| Pace 2 | 258 | 0102 1012 |
| Step 3 | 258 | 0101012 |
Octal Number − 258 = Binary Number − 101012
Shortcut method - Binary to Hexadecimal
Steps
-
Step 1 − Divide the binary digits into groups of four (starting from the right).
-
Step 2 − Catechumen each grouping of 4 binary digits to 1 hexadecimal symbol.
Instance
Binary Number − 101012
Computing hexadecimal Equivalent −
| Pace | Binary Number | Hexadecimal Number |
|---|---|---|
| Step 1 | 101012 | 0001 0101 |
| Step 2 | 101012 | 110 vten |
| Step three | 101012 | fifteenxvi |
Binary Number − 101012 = Hexadecimal Number − 15xvi
Shortcut method - Hexadecimal to Binary
Steps
-
Footstep 1 − Convert each hexadecimal digit to a four digit binary number (the hexadecimal digits may be treated every bit decimal for this conversion).
-
Step 2 − Combine all the resulting binary groups (of 4 digits each) into a unmarried binary number.
Case
Hexadecimal Number − 15sixteen
Computing Binary Equivalent −
| Step | Hexadecimal Number | Binary Number |
|---|---|---|
| Footstep 1 | xv16 | i10 510 |
| Step 2 | fifteen16 | 00012 0101ii |
| Step 3 | 1516 | 000101012 |
Hexadecimal Number − xv16 = Binary Number − 101012
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Source: https://www.tutorialspoint.com/computer_logical_organization/number_system_conversion.htm
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