SN74HC10N
| Manufacturer Part Number: SN74HC10N | Manufacturer / Brand: XBLW |
| Part of Description: The SN74HC10N is a high-performance CMOS triple 3-input NAND gate IC manufactured by Texas Instruments (TI). | Lead Free Status / RoHS Status: Digital Signal Processors & Controllers - DSP, DSC 16 BIT HYBRID CNTRLR |
| Ship From: HK/Shen Zhen | Shipment Way: DHL/Fedex/TNT/UPS |
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Datasheets:
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Product parameters
| Manufacturer | XBLW |
| Details | RoHS |
| Mounting Style | SMD/SMT |
| Package / Case | DIP-14 |
| Supply Voltage – Min | 2 V |
| Supply Voltage – Max | 6 V |
| Packaging | Tube |
| Moisture Sensitive | Yes |
| Factory Pack Quantity | – |
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The SN74HC10N is a high-performance CMOS triple 3-input NAND gate IC manufactured by Texas Instruments (TI). This versatile IC features three independent NAND gates, each capable of processing three inputs. With a wide operating voltage range of 2V to 6V, the SN74HC10N is suitable for integration into a variety of digital systems and applications.
The SN74HC10N offers low power consumption and high noise immunity, ensuring reliable performance in noisy environments. The balanced CMOS push-pull outputs provide high signal integrity, ensuring accurate transmission of logic states through the circuit. The propagation delays of the SN74HC10N are relatively fast, allowing it to handle high-speed digital signals effectively.
In addition to its high performance, the SN74HC10N is also easy to install and use. The PDIP-14 package allows for straightforward integration into circuits, and the device’s low power consumption makes it energy-efficient. The SN74HC10N is ideal for applications requiring complex logic operations, such as communication systems, data processing units, and other digital electronic systems.
Overall, the SN74HC10N is a reliable and efficient CMOS triple 3-input NAND gate IC that offers versatility, performance, and ease of use in a single package. Its fast propagation delays, low power consumption, and high noise immunity make it an ideal choice for digital logic design in a variety of applications.