1

®

NIC COMPONENTS CORP. www.niccomp.com

www.lowESR.com

www.RFpassives.com

www.SMTmagnetics.com

SPECIFICATIONS ARE SUBJECT TO CHANGE

NMC High CV Series

Multilayer Ceramic Chip Capacitors

FEATURES

• X7R, X5R AND Y5V DIELECTRICS

• HIGH CAPACITANCE DENSITY

• ULTRA LOW ESR & ESL

• EXCELLENT MECHANICAL STRENGTH

• NICKEL BARRIER TERMINATIONS

• RoHS COMPLIANT

• SAC SOLDER COMPATIBLE*

NMC 0603 Y5V 105 Z 25 TRP or TRPLP 3K F

RoHS Compliant

Optional Reel Qty (3K = 3,000pcs)

Tape & Reel (Embossed Plastic Carrier)

Tape & Reel (Punched carrier)

Voltage (Vdc)

Capacitance Tolerance Code (see chart)

Capacitance Code, expressed in pF, first 2 digits are

significant, 3rd digit is no. of zeros

Temperature Characteristic (X7R, X5R OR Y5V)

Size Code (see chart)

Series

PART NUMBER SYSTEM

*Reflow soldering is recommended. Contact NIC regarding the use of other soldering methods.

Typical ESR versus Frequency

Typical Capacitance versus Bias Voltage

*See Part Number System for Details

Temperature Coefficient

X7R

X5R

Y5V

Capacitance Range

1.0

μF ~ 47μF

1.0

μF ~ 100μF

1.0

μF ~ 100μF

Capacitance Tolerance

10% (K) & 20% (M)

10% (K) & 20% (M)

+80%/-20% (Z)

Operating Temperature Range

-55°C ~ +125°C

-55°C ~ +85°C

-30°C ~ +85°C

Temperature Characteristics

±15%

Δ Cap.

±15%

Δ Cap.

+22%, -82%

Δ Cap.

Rated Voltages

4Vdc, 6.3Vdc, 16Vdc, 25Vdc, 35Vdc, 50Vdc & 100Vdc

Dissipation Factor

See Part Number and Specificaitons Tables

insulation Resistance

Dielectric Withstanding Voltage

250% of Rated Voltage for 5 ± 1 sec., 50mA max.

150% of Rated Voltage for 5 ± 1 sec., 50mA max.

Test Conditions (EIA-198-2E)

C < 10

μF 1KHz, 1.0V ±0.2Vrms (ALC on)

C > 10

μF 120Hz, 0.5V ±0.2Vrms (ALC on)

1KHz, 1.0V ±0.1Vrms (ALC on)

RoHS

Compliant

Includes all homogeneous materials

Capacitance value stability over applied VDC is not assured for class II MLCC (X7R, X5R & Y5V) and it is suggested to consider

to use NPO MLCCs Ceramic Capacitors, Film Capacitors or Electrolytic Capacitors for applications where stability in capacitance

value, over applied VDC, is performance requirement.