The C3216X7R1E335KT000N is a multilayer ceramic capacitor (MLCC) from TDK Corporation, designed for general-purpose applications where a moderate level of capacitance stability is required across a wide temperature range. It features an X7R dielectric material, offering a balance between capacitance value and temperature performance.
Applications:
- Decoupling in power supplies and voltage regulators
- Bypass in digital circuits to filter noise
- Smoothing in DC-DC converters
- General filtering in electronic systems
- Timing circuits where precise capacitance isn't critical
Features:
- Capacitance: 3.3 µF (microfarads)
- Voltage Rating: 25 V (Volts)
- Dielectric Material: X7R
- Temperature Coefficient: ±15% (-55°C to +125°C)
- Tolerance: ±10%
- Size: 1206 (3.2 mm x 1.6 mm)
- Termination: Nickel barrier with tin plating
Benefits:
- Reasonable Stability: The X7R dielectric maintains a relatively stable capacitance across a broad temperature range.
- Compact Size: The 1206 package enables high-density mounting on printed circuit boards (PCBs), conserving valuable space.
- Reliable Performance: TDK's manufacturing excellence guarantees reliable and consistent operation.
- Wide Applicability: Suitable for various general-purpose applications in diverse electronic circuits.
- Cost-Effective: Delivers a good balance of performance and cost for numerous non-critical applications.
Additional Details:
The C3216X7R1E335KT000N capacitor utilizes a multi-layer ceramic construction. Its nickel barrier termination provides exceptional solderability and resists solder leaching during assembly. The 1206 package adheres to industry-standard dimensions, ensuring compatibility with automated pick-and-place equipment. This capacitor complies with RoHS standards, indicating that it is free from hazardous substances and is designed for reflow soldering processes.
X7R capacitors provide a practical trade-off between capacitance value, temperature stability, and physical size. They are frequently employed in decoupling and bypass applications where some capacitance variation with temperature is acceptable, offering a cost-effective solution for general-purpose electronics.