The C3216X7R1V106KT000E is a multilayer ceramic capacitor (MLCC) manufactured by TDK Corporation. MLCCs are fundamental passive components in electronic circuits used for filtering, bypassing, decoupling, and energy storage. This particular capacitor utilizes an X7R dielectric, offering a balance of performance and stability across a range of temperatures.

Applications

• Decoupling in digital circuits: Provides a stable voltage source for integrated circuits, reducing noise and improving performance.
• Bypassing in analog circuits: Filters out unwanted high-frequency noise from analog signals.
• Filtering in power supplies: Smooths out voltage ripple, improving the quality of the DC output.
• Timing circuits: Used in conjunction with resistors to create timing circuits for oscillators and other applications.
• General-purpose applications in various electronic devices.

Features

• Capacitance: 10µF (10 microfarads).
• Voltage Rating: 35V.
• Temperature Characteristics: X7R (-55°C to +125°C, ±15% capacitance change).
• Size: 1206 (EIA standard, 3.2mm x 1.6mm).
• Termination: Sn (Tin) plating.
• RoHS Compliant: Free of hazardous substances.

Benefits

• Stable Performance: X7R dielectric provides relatively stable capacitance over a wide temperature range.
• High Capacitance Value: 10µF capacitance in a small package.
• Reliable Operation: MLCCs are known for their high reliability and long lifespan.
• Easy to Use: Surface-mount package is compatible with automated assembly equipment.
• Cost-Effective: MLCCs are generally a cost-effective capacitor solution.

Additional Details

The C3216X7R1V106KT000E is constructed using a ceramic dielectric material. Its termination is typically nickel barrier with tin plating. The capacitor is designed for reflow soldering processes. The X7R temperature characteristic signifies that the capacitance will change by no more than ±15% within the temperature range of -55°C to +125°C. This makes it suitable for applications where consistent performance is needed across a range of operating temperatures.