Panasonic 100 μF Aluminium Electrolytic Capacitor 25V dc, Surface Solder - EEEFK1E101P 1000

Panasonic Series FK Aluminium Electrolytic Capacitor, 100μF Capacitance, 25V DC Voltage - EEEFK1E101P

This aluminium electrolytic capacitor is a crucial component for various electronic applications. Designed with a capacitance of 100 μF and rated for 25V DC, this surface mount capacitor has compact dimensions of 8mm in diameter and 6.2mm in height. Built to withstand a temperature range from -55 °C to +105 °C, it meets the rigorous AEC-Q200 automotive standard, ensuring reliability and performance in demanding environments.

Features & Benefits

• Offers a capacitance value of 100 μF for versatile applications
• Rated for 25V DC, ensuring suitable voltage support
• Surface mount design facilitates simplified assembly on PCBs
• Polarised configuration aids in proper installation and functionality
• Lifetime of 2000 hours guarantees sustained operational efficiency
• Low equivalent series resistance at 260 mΩ enhances performance

Applications

• Used with automotive electronic systems requiring reliable power supply
• Ideal for in industrial automation control circuits
• Commonly integrated into consumer electronics for effective energy management
• Utilised in power amplifiers for improved sound quality in audio devices

What operational temperature range is suitable for this component?

It can function effectively between -55 °C and +105 °C, making it ideal for diverse environments, including automotive applications where temperature fluctuations are common.

How long can this component be expected to operate under normal conditions?

With a lifetime of 2000 hours, it provides a dependable performance interval, particularly beneficial for systems with long operational cycles.

What is the significance of the low equivalent series resistance?

The low equivalent series resistance of 260 mΩ contributes to decreased heat generation and enhanced efficiency in energy conversion processes, which is vital for maintaining optimal performance in high-demand scenarios.