Number of Outputs: 1

Load Regulation: ±10 mV

Dimensions: 18.92 x 12.57 x 8.25mm

Mounting Type: Through Hole

Maximum Operating Temperature: +85 °C

Maximum Switching Frequency: 600 Khz

Height: 8.25mm

Width: 12.57mm

Length: 18.92mm

Maximum Input Voltage: 5.5 V

Package Type: DIP Module

Minimum Operating Temperature: -40 °C

Minimum Input Voltage: 2.95 V Maximum Output Current: 2.4A Pin Count: 4 Line Regulation: ±10 mV HTSUS: 8504.40.9580 RoHS Status: ROHS3 Compliant Voltage – Output 1: 5 ~ 15V Operating Temperature: -40°C ~ 85°C Current – Output (Max): 2.4A Package / Case: 4-DIP Module Voltage – Input (Min): 2.95V Type: Non-Isolated PoL Module Applications: ITE (Commercial) REACH Status: REACH Unaffected Voltage – Output 2: – Voltage – Output 3: – edacadModel: PTN04050CAD Models Efficiency: 90% Voltage – Input (Max): 5.5V edacadModelUrl: /en/models/864519Package: Tray Size / Dimension: 0.87″ L x 0.50″ W x 0.34″ H (22.1mm x 12.7mm x 8.6mm) standardLeadTime: 6 Weeks Moisture Sensitivity Level (MSL): Not Applicable Features: – Mounting Type: Through Hole Series: PTN04050C (12W) Base Product Number: PTN04050 Number of Outputs: 1 ECCN: EAR99

The PTN04050CAD manufactured by Texas Instruments is a high-performance, non-isolated DC-DC converter module for various power applications. With its compact size and advanced features, this module offers efficient power conversion and dependable performance. Its packed size, reliability, and versatility make it a preferred choice for industrial, automotive, and telecom applications, delivering efficient power conversion and improving the overall system performance.

Key Features of Texas Instruments PTN04050CAD Include:

• High Efficiency: The PTN04050CAD module provides excellent efficiency, helping to minimize power losses and optimize power usage in applications. This feature is especially beneficial for devices that operate on battery power or in energy-conscious systems.
• Wide Input Voltage Range: The module accepts a wide input voltage range, typically from 9V to 36V, making it suitable for a variety of applications where input voltage levels may vary.
• Output Voltage Flexibility: It offers a programmable output voltage, allowing users to select a desired voltage level according to their application requirements. This feature enhances its versatility and makes it compatible with a wide range of devices.
• Thermal Protection: The PTN04050CAD module incorporates thermal shutdown protection, which prevents damage due to excessive temperature. This feature ensures the module’s safety and longevity under varying operating conditions.

Versatile Applications of Texas Instruments PTN04050CAD:

• Industrial Applications: The PTN04050CAD module finds extensive usage in industrial systems such as factory automation, robotics, and control systems. Its reliable power conversion capabilities make it suitable for powering sensors, actuators, and other critical components.
• Automotive Electronics: The automotive industry requires efficient and compact power solutions, and the PTN04050CAD serves this purpose well. It can be utilized in electric vehicles, infotainment systems, advanced driver-assistance systems (ADAS), and various automotive electronics.
• Telecom and Networking: The module’s wide input voltage range and high efficiency make it appropriate for telecom and networking applications. It can effectively power network switches, routers, base stations, and other communication equipment.

Benefits of Using Texas Instruments PTN04050CAD:

• Space-saving Solution: With its compact size and integrated design, the PTN04050 CAD module saves valuable board space in power-constrained applications. Its compact construction makes it excellent for space-sensitive designs.
• Reliable Performance: Texas Instruments is known for its high-quality products, and the PTN04050CAD is no exception. It delivers stable and consistent power conversion, ensuring reliable performance even in demanding environments.
• Design Simplicity: The module’s ready-to-use design simplifies the system design process. It eliminates the need for complex circuitry and minimizes the component count, saving time and effort during development.