06035A220KAT capacitor specs report: C0G, 50V, 22pF

This report uses measured-oriented guidance: what to verify in a datasheet, behavior vs. environment, and bench validation steps.

Background: Understanding 06035A220KAT and its Market Position

06035A220KAT capacitor specs report: C0G, 50V, 22pF

Point: Decode the marking and place the part in the product stack. Evidence: Typical MLCC part codes embed package, capacitance code, tolerance, voltage, and series information. Explanation: Designers should treat the printed code as shorthand—always cross-check the datasheet for exact mapping because vendor series suffixes vary.

Part-code breakdown and physical footprint

  • 0603: Package size (imperial 0603, nominal footprint ≈ 0.06" × 0.03");
  • 220: Capacitance code representing 22 pF;
  • K: Tolerance indicator (commonly ±10%);
  • 50 V: Rated DC working voltage (explicit on datasheet);
  • C0G: Dielectric class (stability and loss characteristics).

Dielectric overview: C0G (NP0) properties

C0G provides the most stable MLCC dielectric for precision uses, exhibiting approximate 0 ±30 ppm/°C temperature coefficient and negligible aging.

Capacitance Stability (C0G)99.9%
Capacitance Stability (X7R)85%

Detailed Electrical Specifications & Performance Data

A focused spec table consolidates the key capacitor specs designers verify before selection to reduce errors and support procurement comparisons.

Parameter Typical / Target Value
Capacitance 22 pF
Tolerance ±10% (K) — verify marking
Rated Voltage 50 VDC
Dielectric C0G (NP0)
Dissipation Factor (DF)
Insulation Resistance High — datasheet lists µA or GΩ spec
SRF (Self-Resonant Frequency) High hundreds of MHz to low GHz range

* SEO Note: Include "capacitor specs" in procurement datasheets.

Measurement & Validation: Bench Testing Procedures

Recommended Setup

  • Tools: Precision LCR meter, impedance analyzer.
  • Conditions: Small-signal AC at 1 kHz and target RF frequencies.
  • Calibration: Open/short/load compensation is mandatory.

Test Procedure:

1. Calibrate fixture (open/short/load).
2. Measure C and DF at 1 kHz, then sweep to RF band.
3. Measure leakage/IR at rated voltage.
4. Log temperature; repeat if thermal evaluation is required.

Typical Applications and Use-Case Selection

Best-Fit Applications

  • Precision timing networks
  • Oscillator tuning (low drift)
  • RF matching and filtering
  • ADC front-ends / sample-and-hold

Design Reliability

Apply conservative design margins. Use moderate voltage derating and verify reflow profile compatibility to avoid mechanical stress failures.

Purchasing, Equivalents, and Implementation

Final Implementation Checklist

Confirm footprint & land pattern (IPC)
Verify reflow profile compatibility
Specify test limits in procurement
Order evaluation samples for validation
Document SRF & DF for RF bands

Summary

The 06035A220KAT is a 22 pF, 50 V, C0G MLCC in 0603 packaging whose capacitor specs favor stable, low-loss performance for timing, RF matching and precision analog work. Designers should validate SRF, DF and leakage, and run bench verification before volume production.

  • Verify core specs: 22 pF, 50 V, C0G dielectric.
  • Measure using calibrated LCR meters before production.
  • Validate SRF and dissipation factors under representative conditions.

FAQ — Common Questions about Selection and Testing

How should engineers verify the SRF for a 22 pF C0G in 0603? +
Answer: Use an impedance analyzer to sweep from low MHz up through expected RF bands while the part is mounted in a fixture that mimics PCB parasitics. Record the magnitude and phase to locate the impedance minimum (SRF), and repeat with any series traces or pads in place since layout shifts SRF downward.
What tolerance and DF limits are acceptable for timing vs. RF use? +
Answer: For oscillator timing, tolerance and temp coefficient drive frequency accuracy — ±5% or tighter and C0G stability are preferred. For RF matching, low DF (
Which measurement pitfalls most often invalidate capacitor specs in procurement? +
Answer: The most common issues are uncorrected fixture/leads, uncontrolled temperature during test, and measuring at a frequency far from the application band. Procurement should require fixture-corrected data and defined test reports to avoid downstream surprises.
Top