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quality Surface mount conductive polymer aluminum electrolytic capacitors PANASONIC EEFSX0D471E4 with low ESR and operation factory
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quality Surface mount conductive polymer aluminum electrolytic capacitors PANASONIC EEFSX0D471E4 with low ESR and operation factory
>
Specifications
Voltage Rating:
2V
Capacitance:
470uF
Lifetime:
2000hrs@105℃
Tolerance:
±20%
Pin Spacing:
-
Equivalent Series Resistance(ESR):
4.5mΩ
Height - Seated (Max):
2mm
Ripple Current:
8.5A@100kHz
Diameter:
-
Operating Temperature:
-55℃~+105℃
Mfr. Part #:
EEFSX0D471E4
Package:
SMD,7.3x4.3mm
Key Attributes
Model Number: EEFSX0D471E4
Product Description

Product Overview

The SX series Conductive Polymer Aluminum Electrolytic Capacitors are designed for surface mount applications, offering a combination of large capacitance, low Equivalent Series Resistance (ESR), and high ripple current capabilities. These RoHS compliant and Halogen-free capacitors are suitable for demanding applications requiring reliable performance and high efficiency.

Product Attributes

  • Product Type: Conductive Polymer Aluminum Electrolytic Capacitors
  • Mounting Type: Surface Mount
  • Series: SX
  • Compliance: RoHS compliance, Halogen free
  • Marking: SX, Polarity bar (Positive), Lot No.

Technical Specifications

Part Number Capacitance (F) Rated voltage (V.DC) Case size (mm) L Case size (mm) W Case size (mm) H ESR*2 (m max.) Ripple current*1 (mA r.m.s.) Endurance (Rated voltage applied, +105 2 , 2000 h) Damp heat (Steady state, +60 , 90 %, 500 h, No-applied voltage)
EEFSX0D181ER 180 6.3 7.3 4.3 4.3 9 6300 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0D221ER 220 6.3 7.3 4.3 4.3 9 6300 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0D271ER 270 6.3 7.3 4.3 4.3 9 6300 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0D271XE 270 6.3 7.3 4.3 4.3 9 6300 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0D271E4 270 4.0 7.3 4.3 4.3 9 6300 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0D331ER 330 6.3 7.3 4.3 4.3 9 6300 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0D331XE 330 6.3 7.3 4.3 4.3 9 6300 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0D331E4 330 4.0 7.3 4.3 4.3 9 6300 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0D391ER 390 6.3 7.3 4.3 4.3 9 6300 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0D391XE 390 6.3 7.3 4.3 4.3 9 6300 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0D391E4 390 4.0 7.3 4.3 4.3 9 6300 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0D471ER 470 6.3 7.3 4.3 4.3 9 7500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0D471XE 470 6.3 7.3 4.3 4.3 9 7500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0D471E4 470 4.0 7.3 4.3 4.3 9 7500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0D561E4 560 4.0 7.3 4.3 4.3 9 8500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0E151ER 150 6.3 7.3 4.3 4.3 6 7500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0E181ER 180 6.3 7.3 4.3 4.3 6 7500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0E221ER 220 6.3 7.3 4.3 4.3 6 8500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0E221E7 220 2.5 7.3 4.3 4.3 6 8500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0E271E7 270 2.5 7.3 4.3 4.3 6 8500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0E331ER 330 6.3 7.3 4.3 4.3 6 8500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0E331XE 330 6.3 7.3 4.3 4.3 6 8500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0E331E4 330 4.0 7.3 4.3 4.3 6 8500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0E391ER 390 6.3 7.3 4.3 4.3 6 8500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0E391XE 390 6.3 7.3 4.3 4.3 6 8500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0E391E4 390 4.0 7.3 4.3 4.3 6 8500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0E471ER 470 6.3 7.3 4.3 4.3 6 8500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0E471XE 470 6.3 7.3 4.3 4.3 6 8500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0E471E4 470 4.0 7.3 4.3 4.3 6 8500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0G101ER 100 6.3 7.3 4.3 4.3 4.5 6300 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0G151ER 150 6.3 7.3 4.3 4.3 4.5 7500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0G151E7 150 2.5 7.3 4.3 4.3 4.5 7500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0G181ER 180 6.3 7.3 4.3 4.3 4.5 8500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0G221ER 220 6.3 7.3 4.3 4.3 4.5 8500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0G221E7 220 2.5 7.3 4.3 4.3 4.5 8500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0G271ER 270 6.3 7.3 4.3 4.3 6 7000 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0G331ER 330 6.3 7.3 4.3 4.3 6 7500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0G331XE 330 6.3 7.3 4.3 4.3 6 7500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0J121E7 120 2.5 4.3 4.3 4.3 9 3500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0J151ER 150 6.3 4.3 4.3 4.3 9 3500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0J181ER 180 6.3 4.3 4.3 4.3 9 3500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0J221ER 220 6.3 4.3 4.3 4.3 9 3500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0G820ER 82 6.3 7.3 4.3 4.3 4.5 3500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0G101ER 100 6.3 7.3 4.3 4.3 4.5 6300 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0G151ER 150 6.3 7.3 4.3 4.3 4.5 7500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0G151E7 150 2.5 7.3 4.3 4.3 4.5 7500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0G181ER 180 6.3 7.3 4.3 4.3 4.5 8500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0G221ER 220 6.3 7.3 4.3 4.3 4.5 8500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0G221E7 220 2.5 7.3 4.3 4.3 4.5 8500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0G271ER 270 6.3 7.3 4.3 4.3 6 7000 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0G331ER 330 6.3 7.3 4.3 4.3 6 7500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0G331XE 330 6.3 7.3 4.3 4.3 6 7500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0J121E7 120 2.5 4.3 4.3 4.3 9 3500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0J151ER 150 6.3 4.3 4.3 4.3 9 3500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0J181ER 180 6.3 4.3 4.3 4.3 9 3500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0J221ER 220 6.3 4.3 4.3 4.3 9 3500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0J151ER 150 6.3 7.3 4.3 4.3 9 8500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0J181ER 180 6.3 7.3 4.3 4.3 9 8500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit
EEFSX0J221ER 220 6.3 7.3 4.3 4.3 9 8500 Capacitance change Within 20 % of the initial value, Dissipation factortan ) 2 times of the initial limit, DC leakage current 2 times of the initial limit Capacitance change Within the initial limit

General Specifications:

  • Category temp. range: 55 to +105
  • Capacitance tolerance: 20 % (120 Hz / +20 )
  • DC leakage current: I 0.1 CV (A) 2 minutes
  • Dissipation factor (tan ): 0.06 (120 Hz / + 20 )
  • Surge voltage (V.DC): Rated voltage 1.25 (15 to 35 )
  • Rated voltage range: 2.0 V.DC to 6.3 V.DC
  • Nominal cap. range: 82 F to 560 F

Temperature coefficient of ripple current:

Temperature Coefficient
T 45 1.0
45 < T 85 0.7
85 < T 105 0.25

Dimensions (not to scale):

  • L 0.2
  • W1 0.2
  • W2 0.1
  • H 0.1
  • P 0.3
  • d 2.0
  • e 2.5

Packaging Qty*3 (pcs): 500 pcs packing is available upon request.

Notes:

  • *1: Ripple current measured at 100 kHz / +45
  • *2: ESR measured at 100 kHz / +20
  • *3: Please contact us when 500 pcs packing is necessary.
  • Refer to each page in this catalog for Reflow conditions and Taping specifications.
  • Ripple current should be controlled so that the surface temperature of the capacitor does not exceed the category temperature.

Design and specifications are subject to change without notice. Please ask the factory for the current technical specifications before purchase and/or use.

Should a safety concern arise regarding this product, please be sure to contact us immediately.


2409302332_PANASONIC-EEFSX0D471E4_C424361.pdf

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