Panasonic 330 μF Povrch 2.5V dc

Panasonic SP-CAP SX Series Polymer Capacitor, 330μF Capacitance, 2.5V DC Voltage - EEFSX0E331ER

This polymer capacitor is designed for surface mount applications, offering a capacitance of 330 μF and a voltage rating of 2.5V DC. With Compact dimensions of 7.3mm in length, 4.3mm in depth, and 1.9mm in height, it provides high performance in limited space scenarios. The capacitor is tested to AEC-Q200 automotive standards, ensuring reliability in various applications.

Features & Benefits

• Low equivalent series resistance of 9 mΩ enhances efficiency
• Tolerance of ±20% supports consistent performance
• Operates in temperatures from -40 °C to +105 °C
• Lifetime rating of 2000 hours ensures durability and longevity
• Minimal leakage current of 82.5 μA promotes energy conservation
• High dissipation factor of 6% optimises performance in demanding applications

Applications

• Used in automotive circuits for power management
• Suitable for consumer electronics requiring efficient energy storage
• Applicable in power supply systems for voltage smoothing
• Ideal for circuit designs needing Compact and lightweight components

What are the operating temperature ranges this component can handle?

The component can function effectively in temperatures ranging from -40 °C to +105 °C, suitable for both low and high-temperature environments typically found in automotive and industrial applications.

How does the low ESR contribute to its application?

The low equivalent series resistance ensures the capacitor operates with less heat generation and higher efficiency, making it Ideal for applications requiring Rapid charge and discharge cycles.

What impact does the lifetime rating have on long-term projects?

The 2000-hour lifetime rating indicates durability, making it a reliable choice for long-term projects and reducing the frequency of component replacement in critical systems.

Why is leakage current performance important for this capacitor?

A minimal leakage current of 82.5 μA prevents energy loss in circuits, enhancing overall system efficiency, particularly in battery-powered applications where prolonged operation is essential.