The 74HC10 is a NAND logic gate integrated circuit that can take up to 3 inputs. It uses complementary metal-oxide-semiconductor (CMOS) technology and operates with a power supply voltage of 2 to 6 volts. The 74HC10 is a versatile logic gate that can be used in various digital circuits to perform the logical operation of a NAND gate on up to three inputs. It is commonly used in digital circuits for data processing, control, and signal conditioning applications. The 74HC10 has a compact design, low power consumption, and high noise immunity, making it a popular choice in digital circuits.
- 1 x 74HC10 NAND Logic Gate
- 3-input NAND gate: The 74HC10 can take up to three inputs and performs the logical operation of a NAND gate.
- High-speed operation: It operates at high speed, making it useful in digital circuits that require fast switching times.
- CMOS technology: It uses CMOS technology, which provides low power consumption and high noise immunity.
- Wide operating voltage range: It operates within a voltage range of 2 to 6 volts, making it compatible with a wide range of digital circuits.
- Low power consumption: It has low power consumption, making it energy-efficient.
- High noise immunity: It has high noise immunity, which means that it is not affected by external electromagnetic interference.
- Compact design: It has a compact design, which makes it easy to integrate into circuit boards.
- RoHS compliant: It is RoHS (Restriction of Hazardous Substances) compliant, which means that it is free from hazardous substances such as lead and mercury.
- Temperature range: It operates within a temperature range of -40°C to 125°C, making it suitable for use in a variety of environments.
The 74HC10 is a high-speed CMOS (complementary metal-oxide-semiconductor) NAND gate IC (integrated circuit) that can take up to three inputs. It is designed to operate with a power supply voltage ranging from 2 to 6 volts, making it compatible with a wide range of digital circuits. The 74HC10 is a versatile logic gate that performs the logical operation of a NAND gate on up to three inputs, making it useful in various digital circuits for data processing, control, and signal conditioning applications. It has three input pins, labeled A, B, and C, and one output pin, labeled Y. The output Y is low only when all three inputs (A, B, and C) are high, otherwise, the output is high. The 74HC10 has several features that make it a popular choice for digital circuits. Firstly, it has a compact design, which means that it can be easily integrated into a circuit board. Secondly, it has low power consumption, making it energy-efficient. Lastly, it has high noise immunity, which means that it is not affected by external electromagnetic interference.
Principle of Work:
The 74HC10 is a logic gate that performs the NAND (Not AND) function on three inputs. It takes three binary inputs (either high or low) and produces a single binary output. The output is low (0) if all three inputs are high (1), and high (1) for all other input combinations. The operation of the NAND gate is based on De Morgan's theorem, which states that the complement of the product of two or more variables is equal to the sum of the complements of those variables. In other words, the NAND gate is equivalent to an AND gate followed by a NOT gate. The 74HC10 IC contains three NAND gates, each with three inputs and a single output. The inputs are connected to internal transistors that switch on and off depending on the input voltage. The output is determined by the combination of the input voltages and the internal circuitry of the IC.
When the input voltages to the NAND gate are such that all three inputs are high (1), the output is low (0). This is because the internal transistors are switched off, preventing current from flowing through the output. For all other input combinations, the output is high (1), because at least one of the internal transistors is switched on, allowing current to flow through the output.
The truth table:
Pinout of the Module:
|1||A Input Gate 1|
|2||B Input Gate 1|
|3||A Input Gate 2|
|4||B Input Gate 2|
|5||C Input Gate 2|
|6||Y Output Gate 2|
|8||Y Output Gate 3|
|9||A Input Gate 3|
|10||B Input Gate 3|
|11||C Input Gate 3|
|12||Y Output Gate 1|
|13||C Input Gate 1|
|14||Vcc - Positive Supply|
- Digital signal processing
- Control logic for microprocessors and other digital circuits
- Glue logic to interface between different types of digital circuits
- Memory address decoding
- Data transmission and reception
- Clock signal generation and distribution
- Power-on reset circuitry
- Oscillator and timer circuits
- Frequency division and multiplication
- Switching power supplies
This is a circuit to change the output state based on the input stat using a switch you can simulate the circuit by clicking on the link.
No library is needed to work with the IC.
- Supply voltage range: 2V to 6V
- Maximum input voltage: VCC + 0.5V
- Maximum output voltage: VCC + 0.5V
- Maximum input current: ±1uA
- Maximum output current: ±25mA
- Operating temperature range: -40°C to +125°C
- Power dissipation: 500mW (per gate)
- Propagation delay: 17ns (typical) at VCC = 4.5V and 50pF load
- Pin count: 14
- Pin spacing: 2.54mm (0.1 inches)
- Package type: DIP (Dual Inline Package)
The 74HC10 and 7400 NAND gates are both digital logic ICs that perform the same basic function of implementing a NAND gate with three inputs. However, they differ in several important ways:
- Technology: The 74HC10 uses CMOS technology, while the 7400 is a TTL IC. CMOS ICs generally consume less power and are less susceptible to noise, while TTL ICs are faster and have better fan-out characteristics.
- Supply voltage: The 74HC10 operates at a supply voltage of 2 to 6 volts, while the 7400 operates at a higher supply voltage of 4.5 to 5.5 volts.
- Speed: The 7400 has a typical propagation delay of 10 nanoseconds, while the 74HC10 has a typical propagation delay of 9 nanoseconds. The 74HC10 is therefore slightly faster than the 7400.
- Pinout: The pinouts of the 74HC10 and 7400 are different, meaning that they cannot be used interchangeably without modifying the circuit design.
The 74HC10 is a more modern and efficient IC compared to the 7400. However, the choice between the two ICs ultimately depends on the specific requirements of the circuit design, including factors such as power consumption, speed, and supply voltage.