
- Digital Electronics - Home
- Digital Electronics Basics
- Types of Digital Systems
- Types of Signals
- Logic Levels And Pulse Waveforms
- Digital System Components
- Digital Logic Operations
- Digital Systems Advantages
- Number Systems
- Number Systems
- Binary Numbers Representation
- Binary Arithmetic
- Signed Binary Arithmetic
- Octal Arithmetic
- Hexadecimal Arithmetic
- Complement Arithmetic
- Base Conversions
- Base Conversions
- Binary to Decimal Conversion
- Decimal to Binary Conversion
- Binary to Octal Conversion
- Octal to Binary Conversion
- Octal to Decimal Conversion
- Decimal to Octal Conversion
- Hexadecimal to Binary Conversion
- Binary to Hexadecimal Conversion
- Hexadecimal to Decimal Conversion
- Decimal to Hexadecimal Conversion
- Octal to Hexadecimal Conversion
- Hexadecimal to Octal Conversion
- Binary Codes
- Binary Codes
- 8421 BCD Code
- Excess-3 Code
- Gray Code
- ASCII Codes
- EBCDIC Code
- Code Conversion
- Error Detection & Correction Codes
- Logic Gates
- Logic Gates
- AND Gate
- OR Gate
- NOT Gate
- Universal Gates
- XOR Gate
- XNOR Gate
- CMOS Logic Gate
- OR Gate Using Diode Resistor Logic
- AND Gate vs OR Gate
- Two Level Logic Realization
- Threshold Logic
- Boolean Algebra
- Boolean Algebra
- Laws of Boolean Algebra
- Boolean Functions
- DeMorgan's Theorem
- SOP and POS Form
- POS to Standard POS Form
- Minimization Techniques
- K-Map Minimization
- Three Variable K-Map
- Four Variable K-Map
- Five Variable K-Map
- Six Variable K-Map
- Don't Care Condition
- Quine-McCluskey Method
- Min Terms and Max Terms
- Canonical and Standard Form
- Max Term Representation
- Simplification using Boolean Algebra
- Combinational Logic Circuits
- Digital Combinational Circuits
- Digital Arithmetic Circuits
- Multiplexers
- Multiplexer Design Procedure
- Mux Universal Gate
- 2-Variable Function Using 4:1 Mux
- 3-Variable Function Using 8:1 Mux
- Demultiplexers
- Mux vs Demux
- Parity Bit Generator and Checker
- Comparators
- Encoders
- Keyboard Encoders
- Priority Encoders
- Decoders
- Arithmetic Logic Unit
- 7-Segment LED Display
- Code Converters
- Code Converters
- Binary to Decimal Converter
- Decimal to BCD Converter
- BCD to Decimal Converter
- Binary to Gray Code Converter
- Gray Code to Binary Converter
- BCD to Excess-3 Converter
- Excess-3 to BCD Converter
- Adders
- Half Adders
- Full Adders
- Serial Adders
- Parallel Adders
- Full Adder using Half Adder
- Half Adder vs Full Adder
- Full Adder with NAND Gates
- Half Adder with NAND Gates
- Binary Adder-Subtractor
- Subtractors
- Half Subtractors
- Full Subtractors
- Parallel Subtractors
- Full Subtractor using 2 Half Subtractors
- Half Subtractor using NAND Gates
- Sequential Logic Circuits
- Digital Sequential Circuits
- Clock Signal and Triggering
- Latches
- Shift Registers
- Shift Register Applications
- Binary Registers
- Bidirectional Shift Register
- Counters
- Binary Counters
- Non-binary Counter
- Design of Synchronous Counter
- Synchronous vs Asynchronous Counter
- Finite State Machines
- Algorithmic State Machines
- Flip Flops
- Flip-Flops
- Conversion of Flip-Flops
- D Flip-Flops
- JK Flip-Flops
- T Flip-Flops
- SR Flip-Flops
- Clocked SR Flip-Flop
- Unclocked SR Flip-Flop
- Clocked JK Flip-Flop
- JK to T Flip-Flop
- SR to JK Flip-Flop
- Triggering Methods:Flip-Flop
- Edge-Triggered Flip-Flop
- Master-Slave JK Flip-Flop
- Race-around Condition
- A/D and D/A Converters
- Analog-to-Digital Converter
- Digital-to-Analog Converter
- DAC and ADC ICs
- Realization of Logic Gates
- NOT Gate from NAND Gate
- OR Gate from NAND Gate
- AND Gate from NAND Gate
- NOR Gate from NAND Gate
- XOR Gate from NAND Gate
- XNOR Gate from NAND Gate
- NOT Gate from NOR Gate
- OR Gate from NOR Gate
- AND Gate from NOR Gate
- NAND Gate from NOR Gate
- XOR Gate from NOR Gate
- XNOR Gate from NOR Gate
- NAND/NOR Gate using CMOS
- Full Subtractor using NAND Gate
- AND Gate Using 2:1 MUX
- OR Gate Using 2:1 MUX
- NOT Gate Using 2:1 MUX
- Memory Devices
- Memory Devices
- RAM and ROM
- Cache Memory Design
- Programmable Logic Devices
- Programmable Logic Devices
- Programmable Logic Array
- Programmable Array Logic
- Field Programmable Gate Arrays
- Digital Electronics Families
- Digital Electronics Families
- CPU Architecture
- CPU Architecture
Hexadecimal to Octal Conversion
Hexadecimal to Octal Conversion
The hexadecimal to octal conversion can be perform in the same way as the octal to hexadecimal as explained above. To convert a given hexadecimal number to octal number, we first convert the given hexadecimal number to binary and then the binary number to the octal.
The step-by-step procedure to convert a hexadecimal number to its equivalent octal number is explained below −
Step 1 − Convert each hexadecimal digit to its equivalent 4-bit binary.
Step 2 − Make groups of 3-bits each of the obtained binary number.
Step 3 − Convert each 3-bit binary group to its equivalent octal number.
The following examples demonstrate the method of converting a given hexadecimal number to its equivalent octal number.
Example 1
Convert (B3A9.5F)16 to octal.
Solution
The conversion of the given hexadecimal number to its equivalent octal number is explained below −
Hex Digits | B | 3 | A | 9 | . | 5 | F | |||
4-bit Binary | 1011 | 0011 | 1010 | 1001 | . | 0101 | 1111 | |||
3-bit Binary | 001 | 011 | 001 | 110 | 101 | 001 | . | 010 | 111 | 110 |
Octal Digits | 1 | 3 | 1 | 6 | 5 | 1 | . | 2 | 7 | 6 |
Thus, the octal equivalent of the given hexadecimal number is (131651.276)8.
Example 2
Convert (AC.F)16 to octal.
Solution
The conversion of given hexadecimal number to its equivalent octal number is demonstrated below −
Hex Digits | A | C | . | F | ||
10 | 12 | . | 15 | |||
4-bit Binary | 1010 | 1100 | . | 1111 | ||
3-bit Binary | 010 | 101 | 100 | . | 111 | 100 |
Octal Digits | 2 | 5 | 4 | . | 7 | 4 |
Hence, the octal equivalent of the given hexadecimal number is (254.74)8.