NC7SV17P5X Overview
The NC7SV17P5X is a high-performance dual Schmitt-trigger buffer designed for low-voltage applications. This device provides fast switching speeds and low power consumption, making it ideal for battery-operated devices. With its robust design, it ensures reliable operation across various environments, contributing to efficient circuit performance. For more detailed specifications and applications, visit IC Manufacturer.
NC7SV17P5X Key Features
- Dual Schmitt-Trigger Buffer: Offers high noise immunity and fast response times, enhancing the reliability of signal processing in digital circuits.
- Low Power Consumption: Designed to operate efficiently, reducing energy requirements in portable devices and contributing to longer battery life.
- Wide Supply Voltage Range: Supports a broad voltage range for flexibility in various applications, ensuring compatibility with different system designs.
- Compact Package Size: The small footprint allows for space-saving designs in densely populated PCBs, enabling more efficient use of board real estate.
NC7SV17P5X Technical Specifications
| Parameter | Value |
|---|---|
| Supply Voltage (VCC) | 2.0V to 5.5V |
| Input Voltage High (VIH) | 0.7VCC to VCC |
| Input Voltage Low (VIL) | 0V to 0.3VCC |
| Output Voltage High (VOH) | Minimum 0.9VCC |
| Output Voltage Low (VOL) | Maximum 0.1VCC |
| Propagation Delay (tPD) | Typical 3.5 ns |
| Power Dissipation (PD) | Maximum 10 ??A |
| Temperature Range | -40??C to 85??C |
NC7SV17P5X Advantages vs Typical Alternatives
This device stands out against typical alternatives due to its superior low power consumption and fast switching capabilities. While many buffers struggle with high noise levels, the Schmitt-trigger design offers enhanced signal integrity and reliability, making it a preferred choice for engineers seeking consistent performance.
🔥 Best-Selling Products
Typical Applications
- Digital Signal Processing: Perfect for applications requiring clean signal transitions, such as microcontroller interfacing and communication circuits.
- Battery-Powered Devices: Ideal for devices where energy efficiency is critical, extending operational life without sacrificing performance.
- Consumer Electronics: Commonly used in smartphones and tablets to ensure robust signal integrity and responsiveness.
- Automotive Electronics: Suitable for automotive applications where reliability and environmental resilience are paramount.
NC7SV17P5X Brand Info
The NC7SV17P5X is manufactured to meet high standards of quality and performance. This product represents cutting-edge technology in the realm of semiconductor devices, ensuring engineers have access to reliable components for their designs. The brand focuses on providing solutions that help optimize electronic systems across various industries.
FAQ
What is the maximum supply voltage for the NC7SV17P5X?
The maximum supply voltage for this device is 5.5V, allowing it to function effectively in a variety of low-voltage applications.
🌟 Featured Products
-

“Buy MAX9312ECJ+ Precision Voltage Comparator in DIP Package for Reliable Performance”
-

QCC-711-1-MQFN48C-TR-03-1 Bluetooth Audio SoC with MQFN48C Package
-

0339-671-TLM-E Model – High-Performance TLM-E Package for Enhanced Functionality
-

1-1415898-4 Connector Housing, Electrical Wire-to-Board, Receptacle, Packaged
Can the NC7SV17P5X be used in high-temperature environments?
Yes, it operates effectively within a temperature range of -40??C to 85??C, making it suitable for many industrial and automotive applications.
What is the typical propagation delay of the NC7SV17P5X?
The typical propagation delay for the device is around 3.5 ns, ensuring quick signal processing and minimal latency in applications.
📩 Contact Us
How does the NC7SV17P5X contribute to battery life?
With a maximum power dissipation of only 10 ??A, this device is designed to consume minimal power, significantly enhancing battery life in portable devices.
Is the NC7SV17P5X compatible with other logic devices?
Yes, due to its wide supply voltage range and defined input/output voltage levels, it can interface well with various other logic families, enhancing design flexibility.




