T9GV1L14-48 Voltage Regulator Module – Compact PCB Mount Package

T9GV1L14-48 Overview

The T9GV1L14-48 is a high-performance semiconductor device designed to meet demanding industrial and electronic system requirements. Engineered for precision and reliability, it offers robust electrical characteristics that support complex circuit designs. This component delivers consistent performance across a broad temperature range, making it suitable for critical applications in automation, power management, and signal processing. With a compact footprint and optimized electrical specifications, it enables efficient system integration while maintaining excellent durability. For engineers and sourcing specialists seeking dependable and versatile semiconductor solutions, the T9GV1L14-48 stands as a valuable option from IC Manufacturer.

T9GV1L14-48 Technical Specifications

T9GV1L14-48 Key Features

• High-speed operation: With a typical propagation delay of 12 ns, this device supports fast signal processing essential for time-critical industrial applications.
• Wide operating temperature range: Reliable performance from -40??C to +85??C ensures stability in harsh environmental conditions.
• Low power consumption: Maximum power dissipation of 500 mW allows for energy-efficient system designs, reducing heat generation and extending component lifespan.
• TTL compatible inputs: Facilitates seamless interface with legacy systems and a broad range of logic families, enhancing design flexibility.

T9GV1L14-48 Advantages vs Typical Alternatives

This semiconductor device provides superior speed and thermal tolerance compared to standard alternatives. Its low input current and power dissipation improve energy efficiency, while the TTL-compatible inputs simplify integration into existing systems. The robust 48-pin LQFP packaging enhances reliability and supports high-density PCB layouts, making it an optimal choice for engineers prioritizing performance and durability.

Typical Applications

• Industrial automation control systems where precise timing and robust electrical characteristics are critical for reliable operation in varied temperature environments.
• Power management circuits needing efficient switching and low power dissipation to enhance overall system efficiency.
• Signal processing modules requiring high-speed logic functions with minimal propagation delay for accurate data handling.
• Embedded system designs benefiting from TTL input compatibility and compact package size for space-constrained PCB layouts.

T9GV1L14-48 Brand Info

Manufactured by a leading provider of semiconductor components, this product exemplifies the company??s commitment to delivering reliable, high-quality integrated circuits. The brand focuses on addressing industrial electronics challenges with components that combine advanced technology, strict quality control, and extensive application support. The T9GV1L14-48 is part of a broader portfolio designed to meet the evolving needs of automation, communications, and embedded system markets.

FAQ

What is the typical operating voltage range for this device?

The device operates typically at 3.3 V with a tolerance of ??10%, ensuring stable performance within this voltage range. This specification aligns with common industrial logic levels, facilitating compatibility with various system designs.

Can the device function reliably in harsh temperature conditions?

Yes, it supports an operating temperature range from -40??C up to +85??C, making it suitable for applications exposed to both cold and elevated temperature environments without performance degradation.

How does the propagation delay affect system performance?

With a typical propagation delay of 12 nanoseconds, the component enables high-speed signal processing, which is critical for time-sensitive applications such as real-time control systems and high-frequency data communication.

Is this device compatible with TTL logic families?

Absolutely. The inputs are TTL compatible, allowing easy integration with existing TTL-based circuits and simplifying the design process when interfacing with legacy or mixed-logic systems.