The C3216X7R1C474MT000N is a multilayer ceramic capacitor (MLCC) manufactured by TDK Corporation. It's designed for general-purpose applications where a moderately stable capacitance is needed over a broad temperature range. This capacitor uses an X7R dielectric material, offering a balance between capacitance value and temperature stability.

Applications:

• Decoupling capacitors in various electronic circuits
• Smoothing capacitors in power supplies
• Bypass capacitors in digital systems
• Filtering applications where precise capacitance isn't critical
• General-purpose applications in electronic devices

Features:

• Capacitance: 470 nF (0.47 µF)
• Voltage Rating: 16 V (Volts)
• Dielectric Material: X7R
• Temperature Coefficient: ±15% (-55°C to +125°C)
• Tolerance: ±20%
• Size: 1206 (3.2 mm x 1.6 mm)
• Termination: Nickel barrier with tin plating

Benefits:

• Good Temperature Stability: The X7R dielectric offers reasonably stable capacitance over a wide temperature range (-55°C to +125°C).
• Compact Size: The 1206 package enables high-density mounting on PCBs, saving board space.
• Reliable Performance: TDK's manufacturing ensures reliable operation and long lifespan.
• Versatile Use: Suitable for a broad range of general-purpose applications in electronic circuits.
• Cost-Effective: Provides a good balance of performance and cost for non-critical applications.

Additional Details:

The C3216X7R1C474MT000N capacitor is constructed using a multi-layer ceramic structure. The nickel barrier termination provides excellent solderability and resistance to solder leaching during assembly. The 1206 package is an industry-standard size, ensuring compatibility with automated pick-and-place equipment. This capacitor is designed to meet RoHS compliance standards, indicating it does not contain hazardous substances and is suitable for reflow soldering processes.

X7R capacitors provide a practical compromise between capacitance value, temperature stability, and size. They're frequently used in decoupling and bypass applications where moderate capacitance variations with temperature are acceptable, offering a cost-effective solution for general-purpose electronic circuits.