| Parameters |
| Package / Case |
Aluminum |
| Surface Mount |
NO |
| Terminal Shape |
WIRE |
| Mounting Feature |
THROUGH HOLE MOUNT |
| Number of Pins |
2 |
| Tolerance |
20% |
| JESD-609 Code |
e4 |
| Number of Terminations |
2 |
| Termination |
Radial |
| ECCN Code |
EAR99 |
| Terminal Finish |
Silver (Ag) |
| Max Operating Temperature |
105°C |
| Min Operating Temperature |
-55°C |
| Additional Feature |
ESR IS MEASURED AT 100 KHZ-300 KHZ |
| Capacitance |
47μF |
| Voltage - Rated DC |
20V |
| Packing Method |
BULK |
| Lead Pitch |
600μm |
| ESR (Equivalent Series Resistance) |
36mOhm |
| Polarity |
POLARIZED |
| Ripple Current |
2.21A |
| Tan Delta |
0.07 |
| Current - Leakage |
94μA |
| Diameter |
8mm |
| Length |
5mm |
| RoHS Status |
RoHS Compliant |
The capacitance can run at the range of 47μF.
20% are used to determine the tolerance of this capacitor. It is contained in a package of Aluminum. The type of the 94SP476X0020EBP capacitor Vishay 94SP476X0020EBP is suitable to conduct the ripple current at 2.21A. 94SP476X0020EBP Capacitor The typical values of Voltage - Rated DC are 20V. There are 2 terminals embeded in 94SP476X0020EBP Capacitor. It has Radial terminations in total. The part is packaged by BULK. This device's minimum working temperature must not be less than -55°C. It's recommended that you utilize it when the temperature is below 105°C. There are 2 pins available in the part.
Series
Capacitance: 47μF
Tolerance: 20%
Package / Case: Aluminum
ESR IS MEASURED AT 100 KHZ-300 KHZ
There are great quantities of applications of 94SP476X0020EBP Aluminum Polymer Capacitors.
Typically, 94SP476X0020EBP is used to smooth and buffer rectified DC voltages for DC-DC converters and Power supplies, to reduce power noise & signal noise and to enhance power efficiency. And the following shows some of them.
- To reduce power noise & signal noise
- Signal decoupling & power bypass
- Frequency Converters
- Motor Control
- PFC
- DC Link
- DC/DC, DC/AC, and AC/AC converters
- Spot Welding
- Power Factor Correction
- Bypassing Noise Filtering