Panasonic Capacitor Arrays & Networks 1

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Part RoHS Manufacturer Capacitor Type Mounting Feature Capacitance Rated DC Voltage (URdc) Maximum Operating Temperature Dielectric Material Minimum Operating Temperature Temperature Coef (ppm/Cel) Terminal Finish No. of Functions Technology Package Shape Maximum Seated Height No. of Elements Manufacturer Series Height Package Code Width Multi-layer Additional Features Packing Method Size Code JESD-609 Code Network Type Series No. of Terminals Package Style (Meter) Rated AC Voltage (URac) Length Terminal Shape Positive Tolerance Temperature Characteristics Code Reference Standard Negative Tolerance Terminal Pitch

ECJRVB1H152M

Panasonic

ARRAY/NETWORK CAPACITOR

SURFACE MOUNT

.0015 uF

50 V

125 Cel

CERAMIC

-55 Cel

15%

Tin (Sn)

4

RECTANGULAR PACKAGE

.85 mm

1

ECJR

.85 mm

CHIP

1.6 mm

Yes

TR, PAPER, 7 INCH

1206

e3

ISOLATED C NETWORK

ECJR(B,1H,CLASS 2)

8

SMT

3.2 mm

WRAPAROUND

20 %

X7R

20 %

.8 mm

Capacitor Arrays & Networks

Capacitor arrays and networks are electronic components that are used to provide multiple capacitors in a single package or integrated circuit. They are used in a variety of electronic circuits and applications, where multiple capacitors of different values and types are required.

Capacitor arrays and networks consist of a group of capacitors that are connected together in a specific configuration. The individual capacitors within the array or network can be connected in parallel, series, or a combination of both, depending on the desired capacitance and voltage ratings.

Capacitor arrays and networks are commonly used in applications where space is limited or where a high density of capacitance is required. They are frequently used in filter circuits, oscillators, and timing circuits, where multiple capacitors of different values are required to set the frequency or time constant of the circuit.

One of the advantages of capacitor arrays and networks is that they provide a compact and cost-effective solution for providing multiple capacitors in a single package. They also provide a high level of consistency and precision in their capacitance values, which can be important for many electronic applications.

Capacitor arrays and networks can be made using a variety of capacitor technologies, including ceramic, tantalum, aluminum electrolytic, and film capacitors. The choice of technology depends on the specific requirements of the application, such as operating voltage, temperature range, and stability.