Radial Lead Type Monolithic Ceramic Capacitors

Transcription

1 !Note Please read rating and!cauion (for storage, operating, rating, soldering, mounting and handling) in this catalog to prevent smoking and/or burning, etc. Radial ype onolithic Ceramic Capacitors Cat.No.C9E-21

2 !Note Please read rating and!cauion (for storage, operating, rating, soldering, mounting and handling) in this catalog to prevent smoking and/or burning, etc. o ing Radial ype onolithic Ceramic Capacitors () RP q E w R7 e 1H r 10 t K y 2 u 1 i A03 o A!0 qproduct ID wseries/erminal Product ID Series/erminal RP E RH E/D RD E Radial ype onolithic Ceramic Capacitors (DC2V-DC100V) Radial ype onolithic Ceramic Capacitors 10 C max. (for Automotive) (DC0V-DC100V) Radial ype onolithic Ceramic Capacitors (For Commercial Use Only) (DC2V-DC630V) eemperature Characteristics emperature Reference emperature Characteristics emperature Range C G C7 D7 F1 F L8 R7 C0G* X8G* X7S X7 F YV X8L X7R 2 C 2 C 2 C 2 C 20 C 2 C 2 C 2 C 2 to 12 C 2 to 10 C - to 12 C - to 12 C -2 to 8 C -30 to 8 C - to 12 C 12 to 10 C - to 12 C * Please refer to table for change under reference temperature. change from each temperature C0G X8G Nominal Values (ppm/ C) *1 ax. - C in. or emperature Coefficient 0±30ppm/ C 0±30ppm/ C ±22% +22, -33% +30, -80% +22, -82% ±1% +1, -0% ±1% Operating emperature Range - to 12 C - to 10 C - to 12 C - to 12 C -2 to 8 C -30 to 8 C - to 10 C - to 12 C 0± *1: Nominal values denote the temperature coefficient within a range of 2 to 12 C. from 2 C (%) -30 C ax. in. ax. -10 C in. r 1E 1H 2A 2E 2W 2J DC2V DC0V DC100V DC20V DC0V DC630V t Expressed by three-digit alphanumerics. he unit is pico-farad (pf). he first and second figures are significant digits, and the third figure expresses the number of zeros that follow the two numbers. If there is a decimal point, it is expressed by the capital letter "R." In this case, all figures are significant digits. y olerance C D J K Z olerance ±0.2pF ±0.pF ±% ±10% ±20% +80%, -20% emperature Characteristics VpF : 1pF Step C0G 6 to 9pF : 1pF Step C0G/X8G U10 : E12 Series X7S/X7/X7R/ E6 Series X8L X7S/X7/X7R/ X8L F/YV Step E3 Series E3 Series 2

3 !Note Please read rating and!cauion (for storage, operating, rating, soldering, mounting and handling) in this catalog to prevent smoking and/or burning, etc. u () () 0.0g3.mm or.0g3.mm (Depends on List) 1.0g3.mm or.g3.mm or.0g3.mm (Depends on List) 2.0g3.mm or.g.0mm or.7g.mm (Depends on List) 3.0g.mm or.g.0mm or 6.0g.mm (Depends on List) 7.g7.mm* g10.0mm 7 12.g12.mm 8 7.g.mm U 7.7g12.mm* W.g7.mm * DC630V: W+0.mm oindividual Specification Expressed by three-digit alphanumerics!0packaging Packaging A Ammo Pack B i Spacing A2 B1 C1 DB E1/E2 K1 1/2 P1 S1/S2 Straight Long Straight Long Straight Long Straight aping Straight aping Inside Crimp Inside Crimp aping Outside Crimp Outside Crimp aping 2.mm.0mm 10.0mm 2.mm.0mm.0mm.0mm 2.mm 2.mm distance between reference and bottom planes. 1, S1: H0 = 16.0±0.mm 2, S2: H0 = 20.0±0.mm E1: H = 17.±0.mm E2: H = 20.0±0.mm 3

4 Radial ype onolithic Ceramic Capacitors RDE Series (For Commercial Use Only) (DC2V-DC630V) Features 1. Small size and large capacitance 2. Low ESR characteristics for high frequency 3. Coated with epoxy resin whose flammability is equivalent to UL9V-0 Applications General electronic equipment (Do not use for automotive-related power train and safety equipment.) code: 0/1/2/3 style code: P1 F±0.8 L max. W max. 2.0 min. W1 max. max. ød : 0.±0.0 Coating extension does not exceed the end of the lead bend. Wire : Solder Coated Copper Wire or Solder Coated CP Wire (in mm) L max. W max. W1 max. max. L max. W max. W1 max. max. 2.0 min. ød : 0.± min. ød : 0.±0.0 code: 0/1 style code: K1 F±0.8 Coating extension does not exceed the end of the lead bend. Wire : Solder Coated Copper Wire or Solder Coated CP Wire (in mm) code: 2/3/8 style code: K1 F±0.8 Coating extension does not exceed the end of the lead bend. Wire : Solder Coated Copper Wire or Solder Coated CP Wire (in mm) L max. max. L max. max. 2.0 min. 1. max. W max. 2.0 max. W max. ød : 0.± min. ød : 0.±0.0 code: style code: B1 F±0.8 Wire : Solder Coated Copper Wire or Solder Coated CP Wire (in mm) code: U style code: B1 F±0.8 Wire : Solder Coated Copper Wire or Solder Coated CP Wire (in mm) L max. max. code: W style code: K1 F±0.8 ød : 0.±0.0 Coating extension does not exceed the end of the lead bend. Wire : Solder Coated Copper Wire or Solder Coated CP Wire (in mm) W max. 2.0 min. W1 max. and 0P1/0S1 0K1/01 1P1/1S1 1K1/11 2P1/2S1 2K1/21 3P1/3S1 3K1/31 B1/E1 8K1/81 UB1/UE1 WK1/W1 *DC630V: W+0.mm DC 2V/0V/100V 2V/0V/100V 2V/0V/100V 2V/0V/100V 2V/0V/100V 2V/0V/100V 20V/630V 2V/0V/100V 2V/0V/100V 20V/630V 20V/630V 20V/630V 20V/630V 2V/100V L W W1 F d See the individual product specifications * *

5 arking ype emperature Compensating ype DC0V, DC100V C0G DC2V High Dielectric Constant ype DC0V DC100V DC20V DC630V X7S X7R X7S X7R F YV X7S X7R X7R 0 A 102J 10K Z 22K 22K 22K 1 2 Individual Specification App Individual Specification Cpp K2C KC KC 10 K1C 103K 13 KC 13 K7C 3, 8, W K2C KC K1C KC K7C, U 7 KC 7 7C emperature Characteristics arked with code (C0G char.: A, X7S/X7R char.: C, F/YV char.: F) A part is omitted (Please refer to the marking example.) Nominal Under 100pF: Actual value 100pF and over: arked with 3 figures olerance arked with code A part is omitted (Please refer to the marking example.) arked with code (DC2V: 2, DC0V:, DC100V: 1, DC20V:, DC630V: 7) Lower horizontal line for F char. A part is omitted (Please refer to the marking example.) anufacturer's Identification arked with A part is omitted (Please refer to the marking example.) 28 emperature Compensating ype, C0G Characteristics (pf) aping (1) RDEC1H100J0ppC03p C0G 0 10 ±%.0 x K1 1 - RDEC1H100J0ppC03p C0G 0 10 ±%.0 x P1 S1 - RDEC1H120J0ppC03p C0G 0 12 ±%.0 x K1 1 - RDEC1H120J0ppC03p C0G 0 12 ±%.0 x P1 S1 - RDEC1H10J0ppC03p C0G 0 1 ±%.0 x K1 1 - RDEC1H10J0ppC03p C0G 0 1 ±%.0 x P1 S1 - RDEC1H180J0ppC03p C0G 0 18 ±%.0 x K1 1 - RDEC1H180J0ppC03p C0G 0 18 ±%.0 x P1 S1 - RDEC1H220J0ppC03p C0G 0 22 ±%.0 x K1 1 - RDEC1H220J0ppC03p C0G 0 22 ±%.0 x P1 S1 - RDEC1H270J0ppC03p C0G 0 27 ±%.0 x K1 1 - RDEC1H270J0ppC03p C0G 0 27 ±%.0 x P1 S1 - RDEC1H330J0ppC03p C0G 0 33 ±%.0 x K1 1 - RDEC1H330J0ppC03p C0G 0 33 ±%.0 x P1 S1 - RDEC1H390J0ppC03p C0G 0 39 ±%.0 x K1 1 - RDEC1H390J0ppC03p C0G 0 39 ±%.0 x P1 S1 - RDEC1H70J0ppC03p C0G 0 7 ±%.0 x K1 1 - RDEC1H70J0ppC03p C0G 0 7 ±%.0 x P1 S1 - RDEC1H60J0ppC03p C0G 0 6 ±%.0 x K1 1 - RDEC1H60J0ppC03p C0G 0 6 ±%.0 x P1 S1 -

6 (pf) aping (1) RDEC1H680J0ppC03p C0G 0 68 ±%.0 x K1 1 - RDEC1H680J0ppC03p C0G 0 68 ±%.0 x P1 S1 - RDEC1H820J0ppC03p C0G 0 82 ±%.0 x K1 1 - RDEC1H820J0ppC03p C0G 0 82 ±%.0 x P1 S1 - RDEC1H101J0ppC03p C0G ±%.0 x K1 1 - RDEC1H101J0ppC03p C0G ±%.0 x P1 S1 - RDEC1H121J0ppC03p C0G ±%.0 x K1 1 - RDEC1H121J0ppC03p C0G ±%.0 x P1 S1 - RDEC1H11J0ppC03p C0G 0 10 ±%.0 x K1 1 - RDEC1H11J0ppC03p C0G 0 10 ±%.0 x P1 S1 - RDEC1H181J0ppC03p C0G ±%.0 x K1 1 - RDEC1H181J0ppC03p C0G ±%.0 x P1 S1 - RDEC1H221J0ppC03p C0G ±%.0 x K1 1 - RDEC1H221J0ppC03p C0G ±%.0 x P1 S1 - RDEC1H271J0ppC03p C0G ±%.0 x K1 1 - RDEC1H271J0ppC03p C0G ±%.0 x P1 S1 - RDEC1H331J0ppC03p C0G ±%.0 x K1 1 - RDEC1H331J0ppC03p C0G ±%.0 x P1 S1 - RDEC1H391J0ppC03p C0G ±%.0 x K1 1 - RDEC1H391J0ppC03p C0G ±%.0 x P1 S1 - RDEC1H71J0ppC03p C0G 0 70 ±%.0 x K1 1 - RDEC1H71J0ppC03p C0G 0 70 ±%.0 x P1 S1 - RDEC1H61J0ppC03p C0G 0 60 ±%.0 x K1 1 - RDEC1H61J0ppC03p C0G 0 60 ±%.0 x P1 S1 - RDEC1H681J0ppC03p C0G ±%.0 x K1 1 - RDEC1H681J0ppC03p C0G ±%.0 x P1 S1 - RDEC1H821J0ppC03p C0G ±%.0 x K1 1 - RDEC1H821J0ppC03p C0G ±%.0 x P1 S1 - RDEC1H102J0ppC03p C0G ±%.0 x K1 1 - RDEC1H102J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A100J0ppC03p C0G ±%.0 x K1 1 - RDEC2A100J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A120J0ppC03p C0G ±%.0 x K1 1 - RDEC2A120J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A10J0ppC03p C0G ±%.0 x K1 1 - RDEC2A10J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A180J0ppC03p C0G ±%.0 x K1 1 - RDEC2A180J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A220J0ppC03p C0G ±%.0 x K1 1 - RDEC2A220J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A270J0ppC03p C0G ±%.0 x K1 1 - RDEC2A270J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A330J0ppC03p C0G ±%.0 x K1 1 - RDEC2A330J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A390J0ppC03p C0G ±%.0 x K1 1 - RDEC2A390J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A70J0ppC03p C0G ±%.0 x K1 1 - RDEC2A70J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A60J0ppC03p C0G ±%.0 x K1 1 - RDEC2A60J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A680J0ppC03p C0G ±%.0 x K1 1 - RDEC2A680J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A820J0ppC03p C0G ±%.0 x K1 1 - RDEC2A820J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A101J0ppC03p C0G ±%.0 x K1 1 - RDEC2A101J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A121J0ppC03p C0G ±%.0 x K1 1-29

7 !Note Please read rating and!cauion (for storage, operating, rating, soldering, mounting and handling) in this catalog to prevent smoking and/or burning, etc. (pf) aping (1) RDEC2A121J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A11J0ppC03p C0G ±%.0 x K1 1 - RDEC2A11J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A181J0ppC03p C0G ±%.0 x K1 1 - RDEC2A181J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A221J0ppC03p C0G ±%.0 x K1 1 - RDEC2A221J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A271J0ppC03p C0G ±%.0 x K1 1 - RDEC2A271J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A331J0ppC03p C0G ±%.0 x K1 1 - RDEC2A331J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A391J0ppC03p C0G ±%.0 x K1 1 - RDEC2A391J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A71J0ppC03p C0G ±%.0 x K1 1 - RDEC2A71J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A61J0ppC03p C0G ±%.0 x K1 1 - RDEC2A61J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A681J0ppC03p C0G ±%.0 x K1 1 - RDEC2A681J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A821J0ppC03p C0G ±%.0 x K1 1 - RDEC2A821J0ppC03p C0G ±%.0 x P1 S1 - RDEC2A102J0ppC03p C0G ±%.0 x K1 1 - RDEC2A102J0ppC03p C0G ±%.0 x P1 S1 - wo blank columns are filled with the lead style code. Please refer to the 3 columns on the right for the appropriate code. he last blank column is filled with the packaging code. (B: bulk, A: ammo pack) 30 High Dielectric Constant ype, X7R/X7S Characteristics aping (1) RDER71E10K0ppC03p X7R µF ±10%.0 x K1 1 - RDER71E10K0ppC03p X7R µF ±10%.0 x P1 S1 - RDEC71E22K0ppC03p X7S µF ±10%.0 x K1 1 - RDEC71E22K0ppC03p X7S µF ±10%.0 x P1 S1 - RDEC71E7K0ppC03p X7S 2 0.7µF ±10%.0 x K1 1 - RDEC71E7K0ppC03p X7S 2 0.7µF ±10%.0 x P1 S1 - RDEC71E10K0ppC03p X7S 2 1.0µF ±10%.0 x K1 1 - RDEC71E10K0ppC03p X7S 2 1.0µF ±10%.0 x P1 S1 - RDEC71E22K1ppC03p X7S 2 2.2µF ±10%. x K1 1 - RDEC71E22K1ppC03p X7S 2 2.2µF ±10%.0 x P1 S1 - RDEC71E7K2ppC03p X7S 2.7µF ±10%. x P1 S1 - RDEC71E7K2ppC03p X7S 2.7µF ±10%. x K1 1 - RDEC71E106K2ppC03p X7S µF ±10%. x P1 S1 - RDEC71E106K2ppC03p X7S µF ±10%. x K1 1 - RDEC71E226K3ppC03p X7S µF ±10%. x P1 S1 - RDEC71E226K3ppC03p X7S µF ±10%. x K1 1 - RDEC71E76WppC03p X7S 2 7.0µF ±20%. x K1 1 - RDER71H221K0ppC03p X7R 0 220pF ±10%.0 x K1 1 - RDER71H221K0ppC03p X7R 0 220pF ±10%.0 x P1 S1 - RDER71H331K0ppC03p X7R 0 330pF ±10%.0 x K1 1 - RDER71H331K0ppC03p X7R 0 330pF ±10%.0 x P1 S1 - RDER71H71K0ppC03p X7R 0 70pF ±10%.0 x K1 1 - RDER71H71K0ppC03p X7R 0 70pF ±10%.0 x P1 S1 - RDER71H681K0ppC03p X7R 0 680pF ±10%.0 x K1 1 - RDER71H681K0ppC03p X7R 0 680pF ±10%.0 x P1 S1 - RDER71H102K0ppC03p X7R pF ±10%.0 x K1 1 -

8 aping (1) RDER71H102K0ppC03p X7R pF ±10%.0 x P1 S1 - RDER71H12K0ppC03p X7R 0 100pF ±10%.0 x K1 1 - RDER71H12K0ppC03p X7R 0 100pF ±10%.0 x P1 S1 - RDER71H222K0ppC03p X7R pF ±10%.0 x K1 1 - RDER71H222K0ppC03p X7R pF ±10%.0 x P1 S1 - RDER71H332K0ppC03p X7R pF ±10%.0 x K1 1 - RDER71H332K0ppC03p X7R pF ±10%.0 x P1 S1 - RDER71H72K0ppC03p X7R 0 700pF ±10%.0 x K1 1 - RDER71H72K0ppC03p X7R 0 700pF ±10%.0 x P1 S1 - RDER71H682K0ppC03p X7R pF ±10%.0 x K1 1 - RDER71H682K0ppC03p X7R pF ±10%.0 x P1 S1 - RDER71H103K0ppC03p X7R pF ±10%.0 x K1 1 - RDER71H103K0ppC03p X7R pF ±10%.0 x P1 S1 - RDER71H13K0ppC03p X7R pF ±10%.0 x K1 1 - RDER71H13K0ppC03p X7R pF ±10%.0 x P1 S1 - RDER71H223K0ppC03p X7R pF ±10%.0 x K1 1 - RDER71H223K0ppC03p X7R pF ±10%.0 x P1 S1 - RDER71H333K0ppC03p X7R pF ±10%.0 x K1 1 - RDER71H333K0ppC03p X7R pF ±10%.0 x P1 S1 - RDER71H73K0ppC03p X7R pF ±10%.0 x K1 1 - RDER71H73K0ppC03p X7R pF ±10%.0 x P1 S1 - RDER71H683K0ppC03p X7R pF ±10%.0 x K1 1 - RDER71H683K0ppC03p X7R pF ±10%.0 x P1 S1 - RDER71H10K0ppC03p X7R µF ±10%.0 x K1 1 - RDER71H10K0ppC03p X7R µF ±10%.0 x P1 S1 - RDER71H1K1ppC03p X7R 0 0.1µF ±10%. x K1 1 - RDER71H1K1ppC03p X7R 0 0.1µF ±10%.0 x P1 S1 - RDER71H22K1ppC03p X7R µF ±10%. x K1 1 - RDER71H22K1ppC03p X7R µF ±10%.0 x P1 S1 - RDER71H33K1ppC03p X7R µF ±10%. x K1 1 - RDER71H33K1ppC03p X7R µF ±10%.0 x P1 S1 - RDER71H7K1ppC03p X7R 0 0.7µF ±10%. x K1 1 - RDER71H7K1ppC03p X7R 0 0.7µF ±10%.0 x P1 S1 - RDER71H68K2ppC03p X7R µF ±10%. x P1 S1 - RDER71H68K2ppC03p X7R µF ±10%. x K1 1 - RDER71H10K2ppC03p X7R 0 1.0µF ±10%. x P1 S1 - RDER71H10K2ppC03p X7R 0 1.0µF ±10%. x K1 1 - RDER71H1K2ppC03p X7R 0 1.µF ±10%. x P1 S1 - RDER71H1K2ppC03p X7R 0 1.µF ±10%. x K1 1 - RDER71H22K2ppC03p X7R 0 2.2µF ±10%. x P1 S1 - RDER71H22K2ppC03p X7R 0 2.2µF ±10%. x K1 1 - RDER71H33K3ppC03p X7R 0 3.3µF ±10%. x P1 S1 - RDER71H33K3ppC03p X7R 0 3.3µF ±10%. x K1 1 - RDEC71H7K2ppC03p X7S 0.7µF ±10%. x P1 S1 - RDEC71H7K2ppC03p X7S 0.7µF ±10%. x K1 1 - RDER72A102K0ppC03p X7R pF ±10%.0 x K1 1 - RDER72A102K0ppC03p X7R pF ±10%.0 x P1 S1 - RDER72A12K0ppC03p X7R pF ±10%.0 x K1 1 - RDER72A12K0ppC03p X7R pF ±10%.0 x P1 S1 - RDER72A222K0ppC03p X7R pF ±10%.0 x K1 1 - RDER72A222K0ppC03p X7R pF ±10%.0 x P1 S1 - RDER72A332K0ppC03p X7R pF ±10%.0 x K1 1 - RDER72A332K0ppC03p X7R pF ±10%.0 x P1 S1 - RDER72A72K0ppC03p X7R pF ±10%.0 x K1 1 - RDER72A72K0ppC03p X7R pF ±10%.0 x P1 S1 - RDER72A682K0ppC03p X7R pF ±10%.0 x K1 1 - RDER72A682K0ppC03p X7R pF ±10%.0 x P1 S1-31

9 !Note Please read rating and!cauion (for storage, operating, rating, soldering, mounting and handling) in this catalog to prevent smoking and/or burning, etc. 32 aping (1) RDER72A103K0ppC03p X7R pF ±10%.0 x K1 1 - RDER72A103K0ppC03p X7R pF ±10%.0 x P1 S1 - RDER72A13K0ppC03p X7R pF ±10%.0 x K1 1 - RDER72A13K0ppC03p X7R pF ±10%.0 x P1 S1 - RDER72A223K0ppC03p X7R pF ±10%.0 x K1 1 - RDER72A223K0ppC03p X7R pF ±10%.0 x P1 S1 - RDER72A333K1ppC03p X7R pF ±10%. x K1 1 - RDER72A333K1ppC03p X7R pF ±10%.0 x P1 S1 - RDER72A73K1ppC03p X7R pF ±10%. x K1 1 - RDER72A73K1ppC03p X7R pF ±10%.0 x P1 S1 - RDER72A683K1ppC03p X7R pF ±10%. x K1 1 - RDER72A683K1ppC03p X7R pF ±10%.0 x P1 S1 - RDER72A10K1ppC03p X7R µF ±10%. x K1 1 - RDER72A10K1ppC03p X7R µF ±10%.0 x P1 S1 - RDER72A1K2ppC03p X7R µF ±10%. x P1 S1 - RDER72A1K2ppC03p X7R µF ±10%. x K1 1 - RDER72A22K1ppC03p X7R µF ±10%. x K1 1 - RDER72A22K1ppC03p X7R µF ±10%.0 x P1 S1 - RDER72A33K1ppC03p X7R µF ±10%. x K1 1 - RDER72A33K1ppC03p X7R µF ±10%.0 x P1 S1 - RDER72A7K1ppC03p X7R µF ±10%. x K1 1 - RDER72A7K1ppC03p X7R µF ±10%.0 x P1 S1 - RDER72A68K2ppC03p X7R µF ±10%. x P1 S1 - RDER72A68K2ppC03p X7R µF ±10%. x K1 1 - RDER72A10K2ppC03p X7R µF ±10%. x P1 S1 - RDER72A10K2ppC03p X7R µF ±10%. x K1 1 - RDEC72A1K3ppC03p X7S µF ±10%. x P1 S1 - RDEC72A1K3ppC03p X7S µF ±10%. x K1 1 - RDEC72A22K3ppC03p X7S µF ±10%. x P1 S1 - RDEC72A22K3ppC03p X7S µF ±10%. x K1 1 - RDEC72A7WppC03p X7S 100.7µF ±20%. x K1 1 - RDER72E102K2ppA11p X7R pF ±10%.0 x K1 1 - RDER72E12K2ppA11p X7R pF ±10%.0 x K1 1 - RDER72E222K2ppA11p X7R pF ±10%.0 x K1 1 - RDER72E332K2ppA11p X7R pF ±10%.0 x K1 1 - RDER72E72K2ppA11p X7R pF ±10%.0 x K1 1 - RDER72E682K2ppA11p X7R pF ±10%.0 x K1 1 - RDER72E103K2ppA11p X7R pF ±10%.0 x K1 1 - RDER72E13K2ppC11p X7R pF ±10%.0 x K1 1 - RDER72E223K2ppC11p X7R pF ±10%.0 x K1 1 - RDER72E333K2ppC11p X7R pF ±10%.0 x K1 1 - RDER72E73K2ppC11p X7R pF ±10%.0 x K1 1 - RDER72E683K3ppC11p X7R pF ±10%.0 x K1 1 - RDER72E10K3ppC11p X7R µF ±10%.0 x K1 B1 - RDER72E1K8ppC11p X7R µF ±10% 7. x K1 1 - RDER72E22K8ppC11p X7R µF ±10% 7. x K1 1 - RDER72E33KppC13p X7R µF ±10% 7. x B1 E1 - RDER72E7KppC13p X7R µF ±10% 7. x B1 E1 - RDER72E10UppC13p X7R µF ±20% 7.7 x B1 E1 - RDER72J102K2ppC11p X7R pF ±10%.0 x K1 1 - RDER72J12K2ppC11p X7R pF ±10%.0 x K1 1 - RDER72J222K2ppC11p X7R pF ±10%.0 x K1 1 - RDER72J332K2ppC11p X7R pF ±10%.0 x K1 1 - RDER72J72K2ppC11p X7R pF ±10%.0 x K1 1 - RDER72J682K2ppC11p X7R pF ±10%.0 x K1 1 - RDER72J103K2ppC11p X7R pF ±10%.0 x K1 1 - RDER72J13K2ppC11p X7R pF ±10%.0 x K1 1 -

10 aping (1) RDER72J223K3ppC11p X7R pF ±10%.0 x K1 1 - RDER72J333K3ppC11p X7R pF ±10%.0 x K1 1 - RDER72J73K3ppC11p X7R pF ±10%.0 x K1 1 - RDER72J683K8ppC11p X7R pF ±10% 7. x K1 1 - RDER72J10K8ppC11p X7R µF ±10% 7. x K1 1 - RDER72J1KppC13p X7R µF ±10% 7. x B1 E1 - RDER72J22KppC13p X7R µF ±10% 7. x B1 E1 - RDER72J7UppC13p X7R µF ±20% 7.7 x B1 E1 - wo blank columns are filled with the lead style code. Please refer to the 3 columns on the right for the appropriate code. he last blank column is filled with the packaging code. (B: bulk, A: ammo pack) High Dielectric Constant ype, F/YV Characteristics aping (1) RDEF11H103Z0ppC01p F pF +80/-20%.0 x K1 1 - RDEF11H103Z0ppC01p F pF +80/-20%.0 x P1 S1 - RDEF1H103Z0ppC03p YV pF +80/-20%.0 x K1 1 - RDEF1H103Z0ppC03p YV pF +80/-20%.0 x P1 S1 - RDEF11H223Z0ppC01p F pF +80/-20%.0 x K1 1 - RDEF11H223Z0ppC01p F pF +80/-20%.0 x P1 S1 - RDEF1H223Z0ppC03p YV pF +80/-20%.0 x K1 1 - RDEF1H223Z0ppC03p YV pF +80/-20%.0 x P1 S1 - RDEF11H73Z0ppC01p F pF +80/-20%.0 x K1 1 - RDEF11H73Z0ppC01p F pF +80/-20%.0 x P1 S1 - RDEF1H73Z0ppC03p YV pF +80/-20%.0 x K1 1 - RDEF1H73Z0ppC03p YV pF +80/-20%.0 x P1 S1 - RDEF11H10Z0ppC01p F µF +80/-20%.0 x K1 1 - RDEF11H10Z0ppC01p F µF +80/-20%.0 x P1 S1 - RDEF1H10Z0ppC03p YV µF +80/-20%.0 x K1 1 - RDEF1H10Z0ppC03p YV µF +80/-20%.0 x P1 S1 - wo blank columns are filled with the lead style code. Please refer to the 3 columns on the right for the appropriate code. he last blank column is filled with the packaging code. (B: bulk, A: ammo pack) 33

11 Specifications RDE Series (Only and for est Commercial) ethods Specifications and est ethods No. 1 Dielectric Item Operating emperature Range Between erminals Body Between erminals emperature Compensating ype - to +12 C 2 3 and arking See previous pages : DC2V, DC0V, DC100V 10,000Ω min. or 00Ω µf min. whichever is smaller : DC20V, DC630V 10,000Ω min. or 100Ω µf min. whichever is smaller 6 Within the specified tolerance Specifications High Dielectric Constant ype X7R, X7S: - to +12 C F: -2 to +8 C YV: -30 to +8 C Visual inspection est ethod Visual inspection, Vernier Caliper he capacitors should not be damaged when test voltages of able are applied between the terminals for 1 to sec. (Charge/Discharge current V 0mA) emperature Compensating ype est DC0V, DC100V 300% of the rated voltage High Dielectric Constant ype est DC2V, DC0V 20% of the rated voltage DC100V, DC20V 200% of the rated voltage DC630V 10% of the rated voltage he capacitor is placed in a container with metal balls of 1mm diameter so that each terminal, short-circuited, is kept approximately 2mm from the balls as shown in the figure, and 20% of the rated voltage (200% of the rated voltage in case of rated voltage: DC100V, DC20V, DC630V) is impressed for 1 to sec. between capacitor terminals and metal balls. (Charge/Discharge current V 0mA) he insulation resistance should be measured with a DC voltage not exceeding the rated voltage (DC00±0V in case of rated vlotage: DC630V) at normal temperature and humidity and within 2 min. of charging. (Charge/Discharge current V 0mA) he capacitance, Q/D.F. should be measured at 2 C at the frequency and voltage shown in the table. Approx. 2mm etal balls emperature Compensating ype 7 Q/Dissipation Factor (D.F.) 30pF min.: QU1,000 30pF max.: QU00+20C C: Nominal capacitance (pf) X7R: 0.02 max. F, YV: 0.0 max. X7S: 0.12 max. Item Frequency CV1000pF 1±0.1Hz AC0. to V (r.m.s.) High Dielectric Constant ype Item Frequency CV10µF 1±0.1kHz AC1±0.2V (r.m.s.) CG1000pF 1±0.1kHz AC1±0.2V (r.m.s.) CG10µF 120±2Hz AC0.±0.1V (r.m.s.) 3

12 RDE Series (Only for Commercial) Specifications Specifications and est ethods and est ethods No. Item emperature Compensating ype Specifications High Dielectric Constant ype est ethod 8 emperature Characteristics emperature Coefficient Drift Within the specified tolerance (able A on last column) Within the specified tolerance (able A on last column) Within ±0.2% or ±0.0pF, whichever is larger Within the specified tolerance (able B on last column) he capacitance change should be measured after min. at each specified temperature stage. (1) emperature Compensating ype he temperature coefficient is determined using the capacitance measured in step 3 as a reference. When cycling the temperature sequentially from step 1 through (- to +12 C) the capacitance should be within the specified tolerance for the temperature coefficient and capacitance change as shown in able A. he capacitance drift is calculated by dividing the differences between the maximum and minimum measured values in step 1, 3 and by the cap. value in step 3. Step emperature ( C) 2±2 -±3 2±2 12±3 2±2 (2) High Dielectric Constant ype he ranges of capacitance change compared with the 2 C ( F: 20 C) value over the temperature ranges as shown in able B should be within the specified ranges. Pretreatment (for high dielectric constant type) Perform a heat treatment at 10+0/-10 C for 1 hr., and then let sit at room temperature for 2±2 hrs. As in the figure, fix the capacitor body, apply the force gradually to each lead in the radial direction of the capacitor until reaching 10N and then keep the force applied for 10±1 sec. ensile ermination not to be broken or loosened 9 erminal F 10 Vibration 11 Solderability of s 12 to Soldering Heat Bending Q/D.F. Dielectric (Between erminals) ermination not to be broken or loosened Within the specified tolerance 30pF min.: QU1,000 30pF max.: QU00+20C C: Nominal capacitance (pf) wire should be soldered with uniform coating on the axial direction over 3/ of the circumferential direction. Within ±2.% or ±0.2pF (whichever is larger) No defects X7R: 0.02 max. F, YV: 0.0 max. X7S: 0.12 max. X7R, X7S: Within ±10% F, YV: Within ±20% Each lead wire should be subjected to a force of 2.N and then bent 90 at the point of egress in one direction. Each wire is then returned to the original position and bent 90 in the opposite direction at the rate of one bend per 2 to 3 sec. he capacitor is soldered securely to a supporting terminal and a 10 to Hz vibration of 1.mm peakpeak amplitude is applied for 6 hrs. total, 2 hrs. in each mutually perpendicular direction. Allow 1 min. to cycle the frequency from 10Hz to Hz and the converse. he terminal of a capacitor is dipped into a 2% ethanol (JIS-K-8101) solution of rosin (JIS-K-902) and then into molten solder for 2±0. sec. In both cases the depth of dipping is up to about 1.mm to 2mm from the terminal body. of solder: 2± C Free Solder (Sn-3.0Ag-0.Cu) 23± C H60A or H63A Eutectic Solder he lead wire is immersed in the melted solder 1.mm to 2mm from the main body at 30±10 C for 3.±0. sec. he specified items are measured after 2±2 hrs. Pretreatment (for high dielectric constant type) Perform a heat treatment at 10+0/-10 C for 1 hr., and then let sit at room temperature for 2±2 hrs. 3

13 Specifications RDE Series (Only and for est Commercial) ethods Specifications and est ethods No. Item emperature Compensating ype Specifications High Dielectric Constant ype est ethod 13 emperature Cycle Q/D.F. Dielectric (Between erminals) Within ±% or ±0.pF (whichever is larger) 30pF min.: QU30 10pF to 30pF: QU27+C/2 10pF max.: QU200+10C C: Nominal capacitance (pf) : DC2V, DC0V, DC100V 1,000Ω, 0Ω µf min. (whichever is smaller) : DC20V, DC630V 1,000Ω, 10Ω µf min. (whichever is smaller) X7R, X7S: Within ±12.% F, YV: Within ±30% X7R: 0.0 max. F, YV: 0.07 max. X7S: 0.2 max. he capacitor should be subjected to temperature cycles. Remove and set for 2±2 hrs. at room temperature, then measure. Step emperature ( C) ime (min) in. Operating ±3 Room ax. Operating ±3 Room 30±3 3 max. 30±3 3 max. Pretreatment (for high dielectric constant type) Perform a heat treatment at 10+0/-10 C for 1 hr., and then let sit at room temperature for 2±2 hrs. 1 Humidity (Steady State) Q/D.F. Within ±% or ±0.pF (whichever is larger) 30pF min.: QU30 10pF to 30pF: QU27+C/2 10pF max.: QU200+10C C: Nominal capacitance (pf) X7R, X7S: Within ±1% F, YV: Within ±30% X7R: 0.0 max. F, YV: 0.07 max. X7S: 0.2 max. : DC2V, DC0V, DC100V 1,000Ω, 0Ω µf min. (whichever is smaller) : DC20V, DC630V 1,000Ω, 10Ω µf min. (whichever is smaller) Set the capacitor at 0±2 C and relative humidity of 90 to 9% for hrs. Remove and set for 2±2 hrs. at room temperature, then measure. Pretreatment (for high dielectric constant type) Perform a heat treatment at 10+0/-10 C for 1 hr., and then let sit at room temperature for 2±2 hrs. 1 Humidity Load Q/D.F. Within ±7.% or ±0.7pF (whichever is larger) 30pF min.: QU200 30pF max.: QU100+10C/3 C: Nominal capacitance (pf) X7R, X7S: Within ±1% F, YV: Within ±30% X7R: 0.0 max. F, YV: 0.07 max. X7S: 0.2 max. : DC2V, DC0V, DC100V 00Ω or 2Ω µf min. (whichever is smaller) : DC20V, DC630V 1,000Ω or 10Ω µf min. (whichever is smaller) Apply the rated voltage for hrs. at 0±2 C and in 90 to 9% humidity. Remove and set for 2±2 hrs. at room temperature, then measure. (Charge/Discharge current V0mA) Pretreatment (for high dielectric constant type) Perform a heat treatment at 10+0/-10 C for 1 hr., and then let sit at room temperature for 2±2 hrs. 16 High emperature Load Q/D.F. Within ±3% or ±0.3pF (whichever is larger) 30pF min.: QU30 10pF to 30pF: QU27+C/2 10pF max.: QU200+10C C: Nominal capacitance (pf) X7R, X7S: Within ±1% F, YV: Within ±30% X7R: 0.0 max. F, YV: 0.07 max. X7S: 0.2 max. : DC2V, DC0V, DC100V 1,000Ω, 0Ω µf min. (whichever is smaller) : DC20V, DC630V 1,000Ω, 10Ω µf min. (whichever is smaller) Apply voltage in able for hrs. at the maximum operating temperature±3 C. Remove and set for 2±2 hrs. at room temperature, then measure. (Charge/Discharge current V0mA) DC2V, DC0V DC100V, DC20V DC630V est 10% of the rated voltage 120% of the rated voltage Pretreatment (for high dielectric constant type) Appy test voltage for 1 hr., at test temperature. Remove and set for 2±2 hrs. at room temperature. 17 Solvent arking Legible he capacitor should be fully immersed, unagitated, in reagent at 20 to 2 C for 30± sec. and then removed gently. arking on the surface of the capacitor should immediately be visually examined. Reagent: Isopropyl alcohol able A C0G Nominal Values (ppm/ C) *1 0±30 ax. 0.8 from 2 C (%) C 30 C 10 C in. 0.2 ax. 0.0 in ax. 0.2 in *1: Nominal values denote the temperature coefficient within a range of 2 to 12 C able B X7R X7S YV F Range Reference Cap. Rate to +12 C 30 to + 8 C Within ±1% 2 C Within ±22% Within 82% to + 8 C 20 C Within 80%

14 Radial ype onolithic Ceramic Capacitors RDE Series Large and High Allowable Ripple Current (For Commercial Use Only) (DC20V-DC630V) L max. max. Features 1. Higher capacitance with DC-Bias; approximately 0% higher than X7R under loaded rated voltage. 2. Applicable for use as a DC smoothing capacitor in LED Bulb Lighting circuits after the bridge rectifier circuit AC100V input: 20V rating type maximum capacitance of X7, 20V is 2.2 micro F though X7R, 630V is 0.7 micro F. AC200V input: 0V rating type maximum capacitance of X7, 0V is 1.2 micro F though X7R, 630V is 0.7 micro F. 3. Allowable higher ripple current. Reduces acoustic noise Approximately 1dB reduction in comparison to leaded X7R characteristics parts. Approximately 30dB reduction in comparison to SD X7 characteristics part because the contact area is smaller than a SD.. aximum capacitance is doubled by the dual chip structure in the leaded component construction. code: 2/3/8 style code: K1 F±0.8 ød : 0.±0.0 Coating extension does not exceed the end of the lead bend. Wire : Solder Coated Copper Wire or Solder Coated CP Wire (in mm) 1. max. F±0.8 L max. W max. 2.0 min. W max. 2.0 min. W1 max. max. ød : 0.±0.0 Applications 1. DC smoothing capacitor for LED bulb 2. PFC capacitor for general use SPS 3. Replace Al-E capacitor for long-life equipment code: style code: B1 Wire : Solder Coated Copper Wire or Solder Coated CP Wire L max. max. (in mm) and DC L W W1 F d 2.0 max. W max. 2K1/21 3K1/31 B1/E1 8K1/81 UB1/UE1 *DC630V: W+0.mm 20V/0V/630V. 20V/0V/630V. 20V/0V/630V 7. 20V/0V/630V * V/0V/630V * - See the individual product specifications code: U style code: B1 F± min. Wire : Solder Coated Copper Wire or Solder Coated CP Wire ød : 0.±0.0 (in mm) 37

15 arking DC20V DC0V X7 DC630V K K97 K77 3, K7 K97 K77, U K emperature Characteristics Nominal olerance anufacturer's Identification arked with code (X7 char.: 7) arked with 3 figures arked with code arked with code (DC20V:, DC0V: 9, DC630V: 7) arked with High Dielectric Constant ype, X7 Characteristics 38 aping (1) RDED72E333K2ppC11p X pF ±10%. x K1 1 - RDED72E73K2ppC11p X pF ±10%. x K1 1 - RDED72E683K2ppC11p X pF ±10%. x K1 1 - RDED72E10K3ppC11p X µF ±10%. x K1 1 - RDED72E1K3ppC11p X µF ±10%. x K1 1 - RDED72E22K8ppC11p X µF ±10% 7. x..0.0 K1 1 - RDED72E33K8ppC11p X µF ±10% 7. x..0.0 K1 1 - RDED72E7KppC13p X µF ±10% 7. x B1 E1 - RDED72E68KppC13p X µF ±10% 7. x B1 E1 - RDED72E10KppC13p X µF ±10% 7. x B1 E1 - RDED72E22UppC13p X µF ±20% 7.7 x B1 E1 - RDED72W103K2ppC11p X pF ±10%. x K1 1 - RDED72W13K2ppC11p X pF ±10%. x K1 1 - RDED72W223K2ppC11p X pF ±10%. x K1 1 - RDED72W333K2ppC11p X pF ±10%. x K1 1 - RDED72W73K2ppC11p X pF ±10%. x K1 1 - RDED72W683K3ppC11p X pF ±10%. x K1 1 - RDED72W10K3ppC11p X µF ±10%. x K1 1 - RDED72W1K8ppC11p X µF ±10% 7. x..0.0 K1 1 - RDED72W22KppC13p X µF ±10% 7. x B1 E1 - RDED72W33KppC13p X µF ±10% 7. x B1 E1 - RDED72W7KppC13p X µF ±10% 7. x B1 E1 - RDED72W6KppC13p X µF ±10% 7. x B1 E1 - RDED72W10UppC13p X µF ±20% 7.7 x B1 E1 - RDED72W12UppC13p X µF ±20% 7.7 x B1 E1 - RDED72J103K2ppC11p X pF ±10%. x K1 1 - RDED72J13K2ppC11p X pF ±10%. x K1 1 - RDED72J223K3ppC11p X pF ±10%. x K1 1 - RDED72J333K3ppC11p X pF ±10%. x K1 1 - RDED72J73K3ppC11p X pF ±10%. x K1 1 - RDED72J683K8ppC11p X pF ±10% 7. x..0.0 K1 1 - RDED72J10KppC13p X µF ±10% 7. x B1 E1 - RDED72J1KppC13p X µF ±10% 7. x B1 E1 - RDED72J22KppC13p X µF ±10% 7. x B1 E1 -

16 aping (1) RDED72J27KppC13p X µF ±10% 7. x B1 E1 - RDED72J7UppC13p X µF ±20% 7.7 x B1 E1 - RDED72J6UppC13p X µF ±20% 7.7 x B1 E1 - wo blank columns are filled with the lead style code. Please refer to the 3 columns on the right for the appropriate code. he last blank column is filled with the packaging code. (B: bulk, A: ammo pack) 39

17 Specifications RDE Series Large and est and High ethods Allowable Ripple Current (Only for Commercial Use) Specifications and est ethods No. Item Specifications est ethod 1 6 Within the specified tolerance 7 Dissipation Factor (D.F.) 0.01 max. 8 Operating emperature Range 2 3 and arking See previous pages Dielectric emperature Characteristics Between erminals Body Between erminals - to +12 C ore than 10,000Ω or 100Ω µf, Whichever is smaller Within +22/-33% Visual inspection Visual inspection, Vernier Caliper he capacitor should not be damaged when voltage in able is applied between the terminations for 1 to sec. (Charge/Discharge current V 0mA) est DC20V DC0V DC630V he capacitor is placed in a container with metal balls of 1mm diameter so that each terminal, short-circuit, is kept approximately 2mm from the balls as shown in the figure, and 200% of the rated DC voltage is impressed for 1 to sec. between capacitor terminals and metal balls. (Charge/Discharge current V 0mA) he insulation resistance should be measured with DC00±0V (DC20±2V in case of rated voltage: DC20V,DC0V) at normal temperature and humidity and within 2 min. of charging. (Charge/Discharge current V 0mA) he capacitance/d.f. should be measured at the frequency of 10.1kHz and a voltage of AC10.2V(r.m.s.). he capacitance change should be measured after min. at each specified temperature stage. Step As in the figure, fix the capacitor body, apply the force gradually to each lead in the radial direction of the capacitor until reaching 10N and then keep the force applied for 101 sec. 200% of the rated voltage 10% of the rated voltage 120% of the rated voltage emperature ( C) Approx. 2mm etal balls ensile ermination not to be broken or loosened 9 erminal F Bending ermination not to be broken or loosened Each lead wire should be subjected to a force of 2.N and then bent 90 at the point of egress in one direction. Each wire is then returned to the original position and bent 90 in the opposite direction at the rate of one bend per 2 to 3 sec. 10 Vibration D.F. Within the specified tolerance 0.01 max. he capacitor should be firmly soldered to the supporting lead wire and vibrated at a frequency range of 10 to Hz, 1.mm in total amplitude, with about a 1 minute rate of vibration change from 10Hz to Hz and back to 10Hz. Apply for a total of 6 hrs., 2 hrs. each in 3 mutually perpendicular directions. 0

18 RDE Series Large and High Allowable Ripple Current (Only for Specifications Commercial Use) Specifications and est and est ethods No. Item Specifications est ethod 11 Solderability of s wire should be soldered with uniform coating on the axial direction over 3/ of the circumferential direction. he terminal of a capacitor is dipped into a solution of ethanol (JIS-K-8101) and rosin (JIS-K-902) (2% rosin in weight proportion) and then into molten solder (JIS- Z-3282) for 20. sec. In both cases the depth of dipping is up to about 1. to 2mm from the terminal body. of solder: 2 C Free Solder (Sn-3.0Ag-0.Cu) 23 C H60A or H63A Eutectic Solder 12 to Soldering Heat Dielectric (Between erminals) Within 10% No defects he lead wire is immersed in the melted solder 1. to 2mm from the main body at 3010 C for 3.0. sec. he specified items are measured after 22 hrs. Pretreatment Perform a heat treatment at 10+0/-10 C for 1 hr., and then let sit at room temperature for 22 hrs. 13 emperature Cycle D.F. Within 7.% 0.01 max. ore than 10,000Ω or 100Ω µf (Whichever is smaller) he capacitor should be subjected to temperature cycles. Step emperature ( C) -3 Room 123 Room ime (min) max max. 1 Humidity (Steady State) Dielectric (Between erminals) D.F. Within 12.% 0.02 max. ore than 1,000Ω or 10Ω µf (Whichever is smaller) Pretreatment Perform a heat treatment at 10+0/-10 C for 1 hr., and then let sit at room temperature for 22 hrs. Set the capacitor at 02 C and relative humidity of 90 to 9% for 00 W Y 2 0 hrs. Remove and set for 22 hrs. at room temperature, then measure. Pretreatment Perform a heat treatment at 10+0/-10 C for 1 hr., and then let sit at room temperature for 22 hrs. 1 Humidity Load D.F. Within 12.% 0.02 max. ore than 1,000Ω or 10Ω µf (Whichever is smaller) Apply the rated voltage at 02 C and relative humidity of 90 to 9% for 00 W Y 2 0 hrs. Remove and set for 22 hrs. at room temperature, then measure. (Charge/Discharge current V 0mA) Pretreatment Perform a heat treatment at 10+0/-10 C for 1 hr., and then let sit at room temperature for 22 hrs. 16 High emperature Load D.F. Within 12.% 0.02 max. ore than 1,000Ω or 10Ω µf (Whichever is smaller) Apply voltage in able for 1000 W Y 8 0 hrs. at the maximum operating temperature. Remove and set for 22 hrs. at room temperature, then measure. (Charge/Discharge current V 0mA) DC20V DC0V DC630V est 10% of the rated voltage 130% of the rated voltage 120% of the rated voltage Pretreatment Apply test voltage for 1 hr., at test temperature. Remove and set for 22 hrs. at room temperature. 17 Solvent arking Legible he capacitor should be fully immersed, unagitated, in reagent at 20 to 2 C for 30 sec. and then removed gently. arking on the surface of the capacitor should immediately be visually examined. Reagent : Isopropyl alcohol 1