Panasonic 10 μF Aluminium Electrolytic Capacitor 16V dc, Surface Solder

Panasonic Series HB Aluminium Electrolytic Capacitor, 10μF Capacitance, 16V DC Voltage - EEEHB1C100R

This aluminium electrolytic capacitor is designed for surface mounting, offering a compact 4mm diameter and a height of 5.8mm. With a capacitance of 10 μF and a voltage rating of 16V DC, this component is ideal for a variety of electronic applications. Engineered to withstand extreme temperatures, it can function effectively from -40 °C to +105 °C.

Features & Benefits

• Offers low leakage current of only 3 μA for efficient performance
• Supports a ripple current of 28 mA, enhancing stability
• Polarised design ensures proper installation and functionality
• Tolerance of ±20% for reliable capacitance values
• Designed for a lifetime of 2000 hours under specified conditions
• High-temperature capability optimises utility in demanding environments

Applications

• Ideal for use in power supply circuits and signal processing
• Suitable for energy storage in audio and video
• Used with various electronic devices where space is limited
• Effective in filtering and smoothing in circuits

What operating temperature range can be expected for this component?

The component can operate efficiently within a range of -40 °C to +105 °C, making it suitable for a variety of environments, including high-temperature applications.

How does the ripple current rating affect the capacitor's performance?

The ripple current rating of 28 mA signifies the maximum current that can flow through the capacitor without causing overheating or failure, ensuring reliability in dynamic circuits.

What advantages does the polarised design provide in practical applications?

The polarised design ensures that the component is connected correctly, preventing reverse bias that could lead to damage and ensuring optimal performance in the circuit.

What is the significance of the low leakage current in this capacitor?

A low leakage current of 3 μA improves energy efficiency, making it particularly beneficial in battery-powered devices by minimising power loss over time.