Catalogue - PROTECTIVE DEVICES - Edition 2015

Transcription

1 Catalogue - PROTECTIVE DEVICES - Edition 2 Varistors SMD, THD, High Energy Varicons Multilayer SMD and THD Dual Function Varicons Capacitors Safety class X and Y disc capacitors High voltage disc capacitors

2 2 OVERVIEW OF PROTECTIVE DEVICES Basic Electrical Parameters Maximum Steady State Applied Voltage (Vrms) Size (mm) Package Imax = 13 to 8 A, Wmax = 9 to 414 J Imax > 55 A/cm 2, Wmax > 4 J/cm 3 Imax = to 4 A, Wmax = 3 to 259 J Imax (8/2µs) up to ka, Iimp (/35µs) up to 25 ka Custom Design (8,12) Imax = 6 to A, Wmax = 4 to 8 J Imax > 55 A/cm 2, Wmax > 4 J/cm 3 Imax = 5 to A, Wmax = 9 to 627 J Varistors Imax = 4 to 65 A, Wmax = 2,7 to 62 J Varistors KM C = to nf, Class X1, 3 VAC KM C = 1 to nf, Class Y2, 3 VAC KZL, KZH C = 33 to 47 pf, Class X1/Y1/Y2, 3/5 VAC C = 3pF to nf Vr = 1kV to 6kV Imax = to 12 A, Wmax =,6 to 3 J Imax = to 12 A, Wmax =,6 to 3 J Varicons Imax = A, Wmax =,1 to 2,6 J C (@ 1kHz) = nf to nf 5 12 Imax = 2 to 2 A, Wmax =,1 to 37,8 J Imax = 3 to 4 A Wmax = 1, J Varicons 126 tr < 1 ns, Wmax =,5 to,1 J Varicons CL and C Series : C = 1pF to 4,7µF, V = from 16 V to 63 V X7R, C series: AgPd, Barrier End Terminations, Ni / Sn End terminations C Series Imax = 8 to 12 A, WLD = 6 to 12 J C (@ 1kHz) = 47 nf to nf Custom Design Automotive Varicons 1812, 222 Imax = 12 to 2 A, WLD = 3 to J Custom Design Automotive Varicons Maximum Steady State Applied DC Voltage (Vdc)

3 3 APPLICATION FIELDS Series Maximum Steady State Applied Voltage (Vrms) Size (mm) Package ZOV Series Square Shaped High Energy Varistors ZOVR Series Round Shaped High Energy Varistors High Energy Industrial Products 23, 25, 32, 4, 6 25, 32, 4 ZOV H / ZOVS Series High Energy Varistors for Class I Applications 4, 4 D2, 4 D3 (8,12) SV Series Special Medium Voltage Varistors 5, 7,, 14, 2, 23 CV+ Series Medium Voltage Varistors 7,, 14, 2, 23 CV Series Medium Voltage Varistors 5, 7,, 14, 2 KM Series RFI Suppression Ceramic Capacitors KZ Series Safety Ceramic Capacitors KV Series High Voltage Disc Cermic Capacitors PV Series Low & Medium Voltage Varistors DV Series Medium Voltage Varistors MV Series Low Voltage Dual Function Varistors ZV Series Low Voltage Varistors Low Voltage Board Level Products Telecommunication Products AC Line, TVSS Products 33 pf to nf 33 pf to nf , 7,, 14, , 85, 126, 12, 1812, 222 ZVX Series Low Capacitance & Low Energy Varicons 63, 85, 126 ZVE Series ESD Suppression Varistors 63, 85, 126, 12 CL Series Through-Hole MLC Capacitor C Series SMD MLC Capacitor Automotive Electronics 5, 6, 8, 9 63, 85, 126, 12, 1812, 222 OV Series Automotive Dual Function Varistors 8, , 222 AV Series Automotive Varistors 6, 8, 8, 11 85, 126, 12, 1812, 222, Maximum Steady State Applied DC Voltage (Vdc)

4 KM Series 99 RADIO INTERFERENCE SUPPRESSION DISC CAPACITORS - KM SERIES Description Radio interference suppression KM capacitors offered by VARICON cover a wide capacitance range from 1 nf to 22 nf, operating rated AC voltages 3 V and frequency of 5 Hz. VARICON presently offers two groups of Type 2 KM capacitors: Class X1 and Class Y2. They are successfully used in radio interference suppression for home appliances. Features KM Y2 Capacitance range 1 nf to nf. Rated AC Voltage V rms 3 V / 5 Hz. 9 model sizes available 7 to 18 mm discs. Dielectric Temperature Characteristics: 2E3. Maximum operating temperature up to +125 C. Available with straight and crimped leads. Available in tape and reel for automatic pick and place. VDE File No /31WCJ F35/Kil for KM Y2 capacitors according to the standard EN 1324 and IEC for capacitance range from 1 nf to nf for rated voltage of 3 V~. UL 1414 & CSA C22.2 Across-The-Line Applications File E for KM-Y2 for a capacitance range from 1 nf to nf for rated voltage of 3 V~. Lead free components. Absolute Maximum Ratings Units 2E3 Capacitance range (C) nf 1 to Capacitance Tolerance % M Voltage Dependence yes Dissipation Factor tg δ 25x -3 Rated AC Voltage Range (V rms ) at 5 Hz V 3 Measuring Conditions AC Voltage V 1 ±,2 Frequency khz 1 ± 2 % Test AC Voltage kv 2,2 for 2 s Test AC Voltage to Earth kv 2 Insulation Resistance IR at 5 V GΩ 6 AC Voltage Proof of Coating kv 2 for 6 s Operating Ambient Temperature C -4 to +125 Climatic Category 4 4/125/21 GPF Comply with standards IEC , UL1414 CSA C22.2 No. 1-M1981

5 Device Ratings and Characteristics D KM Series t 3 max R 2 5 m i n h d a Radio Interference Suppression Disc Capacitors - Class Y2 Type C tan δ V rms D t R d h α max max ± 1 ±,5 max ± 1 nf E-3 V mm mm mm mm mm mm KM 1. nf M 2E3 3 Y2 1, ,5 5,,6 1,4 KM 1.5 nf M 2E3 3 Y2 1, ,5 5,,6 11 1,4 KM 1.8 nf M 2E3 3 Y2 1, ,5 5,,6 11 1,4 KM 2.2 nf M 2E3 3 Y2 2, ,5 5,,6 12 1,4 KM 2.5 nf M 2E3 3 Y2 2, ,5 5,,6 12 1,4 KM 2.7 nf M 2E3 3 Y2 2, ,5 5,,6 12 1,4 KM 3.3 nf M 2E3 3 Y2 3, ,5 7,5,8 13 1,4 KM 3.9 nf M 2E3 3 Y2 3, ,5 7,5,8 14 1,4 KM 4.7 nf M 2E3 3 Y2 4, ,5 7,5,8 14 1,4 KM 5. nf M 2E3 3 Y2 5, ,5 7,5,8 1,4 KM 5.6 nf M 2E3 3 Y2 5, ,5 7,5,8 1,6 KM 6.8 nf M 2E3 3 Y2 6, ,5 7,5,8 1,6 KM 8.2 nf M 2E3 3 Y2 8, ,5 7,5,8 19 1,6 KM nf M 2E3 3 Y2, ,5 7,5,8 21 1,6 Impedence Frequency Characteristics KM Y2 Z in 1,1,1,1 nf 5 nf 1 nf 2,2 nf 1 Frequency in MHz

6 l KM / KZ / KV Series 5 Lead Styles Type R h A (mm) (mm) (mm) Version 1 Version 5 KM 1 nf Y2 KM 1,5 1,8 nf Y2 KM 2,2 2,5 nf Y KZL 1 nf Y2 KZL 1,5 nf Y2 KM 3,3 nf Y2...KZL 2,2 nf Y2 KM 4,7 nf Y2 KM 5 nf Y2...KZL 3,3 3,9 nf Y2 KM 6,8 nf Y2...KZL 4,7 nf Y2 KM 8,2 nf Y2 KM nf Y2 7, KZL pf Y2 KZL 68 pf Y2 KZH 33 pf Y1 KZH pf Y1 KZH 1 nf Y1 KZH 1,5 nf Y1 7,5 7, D R A t d a KZH 2,2 nf Y1 KZH 3,3 nf Y1 KZH 3,9 nf Y1 KZH 4,7 nf Y KV 3 pf 1 nf 2 kv KV pf 4 kv KV 33 pf 68 pf 6 kv KV 1,5 1,8 nf 2 kv KV 82 pf 1 nf 4 kv KV 82 pf 1 nf 6 kv KV 2,2 2,5 nf 2 kv KV 1,5 nf 4 kv KV 1,5 nf 6 kv KV 3,3 nf 2 kv KV 1,8 2,2 nf 4 kv KV 1,8 nf 6 kv KV 3,9.4,7 nf 2 kv KV 2,5 nf 4 kv KV 2,2 2,5 nf 6 kv KV 5 nf 2 kv KV 3,3 nf 4 kv KV 3,3 nf 6 kv KV 6,8 nf 2 kv KV 3,9 4,7 nf 4 kv KV 3,9 nf 6 kv KV 8,2 nf 2 kv KV 4,7 nf 6 kv KV nf 2 kv 7,

7 6 KM / KZ / KV Series Ordering Information KZH 4,7nF M 2E3 5 Y1/X1 R L1 yy KZH - Series name: KM, KZL, KZH 4,7nF - Capacitance value M - Capacitance Tolerance: K = ± %, M= ± 2% 2E3 - Ceramic type Designation 5 - Rated AC Voltage: 3, 5 V Y1 - Capacitor Class: X1, Y2, Y1 R - Packaging: R = Reel, A = Ammo Pack, B = Bulk L1 - Lead Style: 1 = straight, 5 = crimped yy - Special requirements Capacitor Marking KM Series For Model Size < 9 mm KM 1n 3 ~ Y2 KM - Series Name 1n - Capacitance Value = 1 nf 3~ - Rated Voltage Y2 - Capacitor Class KZL Series For Model Size < 9 mm KZL 1n 3 ~ Y2 KZL - Series Name 1n - Capacitance Value = 1 nf 3~ - Rated Voltage Y2 - Capacitor Class KZH Series For Model Size < 9 mm KZH n47 5 ~ Y1/X1 KZH - Series Name n47 - Capacitance Value = 47 pf 5~ - Rated Voltage Y1/X1 - Capacitor Class For Model Size = 9 mm KM 2n2 3 ~ Y2 KM - Series Name 2n2 - Capacitance Value = 2,2 nf 3~ - Rated Voltage Y2 - Capacitor Class For Model Size = 9 mm KZL 1n5 3 ~ Y2 KZL - Series Name 1n5 - Capacitance Value = 1,5 nf 3~ - Rated Voltage Y2 - Capacitor Class For Model Size = 9 mm KZH 1n5 5 ~ Y1/X1 KZH - Series Name 1n5 - Capacitance Value = 1,5 nf 5~ - Rated Voltage Y1/X1 - Capacitor Class For Model Size > 9 mm KM n 3 ~ Y2 xx KM - Series Name n - Capacitance Value = nf 3~ - Rated Voltage Y2 - Capacitor Class xx - Approvals For Model Size > 9 mm KZL 3n3 3 ~ Y2 xx KZL - Series Name 3n3 - Capacitance Value = 3,3 nf 3~ - Rated Voltage X12 - Capacitor Class xx - Approvals For Model Size > 9 mm KZH 4n7 5 ~ Y1/X1 xx KZH - Series Name 4n7 - Capacitance Value = 4,7 nf 5~ - Rated Voltage Y1/X1 - Capacitor Class xx - Approvals

8 KM / KZ / KV Series 7 Ordering Information KZH 4,7nF M 2E4 2kV D11 L1 yy KV - Series name: KV 4,7nF - Capacitance value M - Capacitance Tolerance: K = ± %, M= ± 2% 2E4 - Ceramic type Designation 2kV - Rated DC Voltage: 1, 2, 3, 4, 5, 6 kv D11 - Capacitor Diameter R - Packaging: R = Reel, A = Ammo Pack, B = Bulk L1 - Lead Style: 1 = straight, 5 = crimped yy - Special requirements Capacitor Marking For Model Size < 9 mm KV 1n 1 kv 1n - Capacitance Value = 1 nf 1 kv - Rated Voltage Y2 - Capacitor Class For Model Size < 9 mm KV 1n 3 kv 1n - Capacitance Value = 1 nf 3 kv - Rated Voltage Y2 - Capacitor Class For Model Size < 9 mm KV n47 5 kv n47 - Capacitance Value = 47 pf 5 kv - Rated Voltage Y1/X1 - Capacitor Class For Model Size = 9 mm KV 2n2 2 kv 2n2 - Capacitance Value = 2,2 nf 2 kv - Rated Voltage For Model Size = 9 mm KV 1n5 4 kv 1n5 - Capacitance Value = 1,5 nf 4 kv - Rated Voltage For Model Size = 9 mm KV 1n5 6 kv 1n5 - Capacitance Value = 1,5 nf 6 kv - Rated Voltage For Model Size > 9 mm KM n 2 kv n - Capacitance Value = nf 2 kv - Rated VoltageCapacitor Class For Model Size > 9 mm KZL 3n3 4 kv 3n3 - Capacitance Value = 3,3 nf 4 kv - Rated Voltage For Model Size > 9 mm KZH 4n7 6 kv 4n7 - Capacitance Value = 4,7 nf 6 kv - Rated Voltage

9 8 KM / KZ / KV Series Tape and Reel Specification Confo rms to IEC Publication Ed.4: 27-6 T T Symbol Parameter Model Size R = 5 mm R = 7,5 mm R = mm Dimension (mm) W Carrier tape with 18 +1,/-, ,/-, ,/-,5 Wo Hold down tape width 5 min 5 min 5 min W1 Sprocket hole position 9 +,75/-,5 9 +,75/-,5 9 +,75/-,5 W2 Distance between the upper edges of the carrier tape 3 max 3 max 3 max and hold-down tape T Total tape thickness 1,5 max 1,7 max 1,9 max t Tape thickness,9 max,9 max,9 max P Pitch of component 12,7 ± 1, 25,4 ± 1,* 25,4 ± 1, Po Feed hole pitch 12,7 ±,3 12,7 ±,3 12,7 ±,3 P1 Feed hole center to pitch 3,85 ±,7 8,95 ±,7 7,7 ±,7 R Lead Spacing 5 +,5/-,2 7,5 +,5/-,2 +,5/-,2 ΔP Component alignment ± 1,3 max ± 1,3 max ± 1,3 max Δh Component alignment ± 2 max ± 2 max ± 2 max d Wire diameter,6 max,8 max 1 max Do Feed hole diameter 4 ±,2 4 ±,2 4 ±,2 H Height from tape center to comp. base 18 +2,/-, 18 +2,/-, 18 +2,/-, Ho Seating plane height 16 ±,5 16 ±,5 16 ±,5 H1 Component height 32,2 max 46,5 max 46,5 max L Protrusion - cut out 11 max 11 max 11 max L1 Protrusion - cut off,5 max,5 max,5 max * - P 12,7 mm ± 1. for KM 3,3 nf to 6,8 nf * - P 12,7 mm ± 1. for KZL 33 pf to 2,2 nf

10 KM / KZ / KV Series 9 Packaging Reel Ammo pack 33 Package units C (pf) Bulk Reel Ammo KM-Y2 KZL-X1/Y2 KZH-X1/Y1 KM-Y2 KZL-X1/Y2 KZH-X1/Y1 KM-Y2 KZL-X1/Y2 KZH-X1/Y C (pf) Bulk Reel Ammo KV - 2kV KV - 4kV KV - 6kV KV - 2kV KV - 4kV KV - 6kV KV - 2kV KV - 4kV KV - 6kV

11 TH Components 113 ASSEMBLY RECOMMENDATIONS FOR TH COMPONENTS Very often before soldering through-hole components, their leads get bent. It is important not to damage the component during lead bending. Typical damage incurred during bending is cracks in epoxy parts, which can lead to increased humidity sensitivity of a component and consequentially to a shorter life time. In order to avoid epoxy parts damage it is necessary to: - fix the most sensitive point (epoxy parts) of a component body - bend the wire at least 2 mm below the end of epoxy parts Other potential damage to a component which can lead to component failure or a shorter life time is thermal shock during manual soldering with a soldering iron. This can occur in the case when a soldering iron is placed too close to one point of the component body and most often it happens if the solder joint is too close to the varistor body. Resistance to Soldering Heat In the case of automatic wave soldering, it is important to provide sufficient resistance to soldering heat. In order to prevent any potential problems VARICON decided to introduce their own internal standard for testing the resistance to soldering heat of through-hole components: 3 C, s. Pb-free Wave Soldering Profile Recommendations Recommended soldering profiles for all above components are in accordance with JEDEC standard curves (J-STD-2D) and therefore compatible with the new Pb-free process. lead-fee Wave Soldering Profile Pb-free wave soldering profile requirements for soldering heat resistance of components Parameters Symbol Specification preheating temparture gradient 4 C/s max. Preheating time t1 2 to 5 min Min. preheating temperature T1 13 C Max. preheating temperature T2 18 C Melting temperature/point T meltv 2 C Time in wave soldering phase (w 1 +w 2 ) t w1+w2 s Max. wave temperature (w 1 +w 2 ) T C +/-5 C Cooling tempeature gradient 6 C/s max. Tempearature jump form T 2 to T 3 (w 1 ) T 3(w1) - T 2 12 C max Time from 25 C to T 3 (wave temperature) 8 min max.

12 Capacitors 1 Reliability Parameter Voltage Proof Impulse Voltage AC/DC Bias Reliability Charge and Discharge Radio - Frequency Characteristics Capacitance - Temperature Characteristics Environmental and Storage Reliability Mechanical Reliability Test Tested according to Condition to be satisfied after testing Vt AC/DC Life Test Climatic Sequence Thermal Shock Steady State Damp Heat Storage Test Solderability Resistance to Soldering Heat Robustness of Termination Vibration Mechanical Shock EN 132 4, Test the voltage shall be raised from near zero to the test voltage Vt at a rate not exceeding V/s, Where for: Class X1 Capacitors Vt = 2*V rms + V~, 1 minute Class Y1 Capacitors Vt = 4 V~, 1 minute Class Y2 Capacitors Vt = 2*V rms + V~, 1 minute EN 132 4, Test impulses of the same polarity shall be applied to the capacitor. The time between impulses shall be no ledd than s, where for: Class X1 Capacitors Vp = 4 kv Class Y1 Capacitors Vp = 8 kv Class Y2 Capacitors Vp = 5 kv EN 132 4, Test 4.14, h at UCT, where: - for X Class Capacitors: at V = 1,25 V rms and once per hour the voltage shall be increased to V~ for,1 s - for Y Class Capacitors: at V = 1,7 V rms and once per hour the voltage shall be increased to V~ for,1 s EN 132 4, Test cycles of charge and discharge at the rate of one operation per minute with the test voltage of SQRT (2)*V rms discharge rate adjusted to V/μs EN 132 4, test measurement of capacitor impedance over a range of frequencies Measurement of capacitance and tan δ in the temperature chamber at 2 C and at UCT and LTC EN 132 4, Test 4.11 a) Dry heat, 16 h, UCT, Test Ba, IEC b) Damp heat, cyclic, the first cycle: 55 C, 93 % RH, 24 H, test DB, IEC c) Cold, LCT, 2 h, Test Aa, IEC d) Damp heat cyclic, remaining 5 cycles: 55 C, 93 % RH, 24 h/cycle, test Bd, IEC EN 132 4, Test 4.6, Test Na, IEC , 5 cycles UCT/LCT, 3 minutes EN 132 4, Test 4.6, Test Na, IEC , 5 cycles UCT/LCT, 3 minutes ICE , Test Ba h at maximum storage temperature EN 132 4, Test 4.5., Test Ta, IEC , solder bath and reflow method EN 132 4, Test 4.4., Test Tb, IEC , solder bath and reflow method EN 132 4, Test 4.3., Test Ua, IEC EN 131 4, Test 4.7., Test Fc, IEC , Frequency range to 55 Hz; Amplitude.75 mm or 98 m/s2 Total duration 6 h (3 x 2 h); Waveshape - half sine EN 132 4, Test 4.9, Test Ea, IEC Acceleration = 49 m/s2; g 6ms and 5 g 11 ms Waveshape - half sine; Number of shocks = 3 x 6 no permanent breakdown of flash-overs during the test period no self-healing breakdowns or flash-overs ΔC/C < 2 % tan δ <,8 IR greater than 5 % of the applicable limits no permanent breakdown or flash-over during voltage proof ΔC/C < % tan δ <,8 IR greater than 5 % of the applicable limits with specification with specification ΔC/C < 2 % tan δ <,8 IR greater than 5 % of the applicable limits no permanent breakdown or flash-over during voltage proof ΔC/C < 2 % tan δ <,8 IR greater than 5 % of the applicable limits no permanent breakdown or flash-over during voltage proof ΔC/C < 2 % tan δ <,8 IR greater than 5 % of the applicable limits no permanent breakdown or flash-over during voltage proof Solderable at shipment and after 2 years of storage - limits* ΔC/C < % ΔC/C < % tan δ within specification

13 Capacitors 97 Terminology Term Symbol Definition AC Capacitor RFI Suppression Capacitor Capacitor of Class X Capacitor of Class Y Rated AC Voltage Rated DC Voltage Impulse Voltage Measuring and Testing Conditions Ceramic Type Designation Application and Testing Class Ageing Constant V rms V r C and tan δ IR - Insulation resistance V t Voltage Proof of Dielectric Strength 2E3 / 2F3 k A capacitor designed essentially for application with a power - frequency alternating voltage A capacitor used for the reduction of electromagnetic interference caused by electrical or electronic apparatus or other sources A capacitor suitable for use in situations where failure of the capacitor would not lead to danger of electric shock. A capacitor suitable for use in situations where failure of the capacitor could lead to danger of electric shock. AC operating voltage of rated frequency, which may be applied continuously to the terminations of a capacitor at any temperature between the lower and the upper category temperature. DC operating voltage which may be applied continuously to the terminations of a capacitor at any temperature between the lower and the upper category temperature. An impulse voltage is an aperiodic transient voltage of a defined waveform as described in IEC 1 khz ± 2 %, at max 1, V rms, 2-25 C, 5-7 % RH 5 V ± 5 V, 6 s ±5 s, 2-25 C, 5-7 % RH Class X1-2 V rms + V ~ (min. 2 V ~), 5 Hz, 2s, 2-25 C, 5-7 % RH Class Y2-2 V rms + V ~ (min. 2 V ~), 5 Hz, 2s, 2-25 C, 5-7 % RH Class Y1-4 V ~, 5 Hz, 2s, 2-25 C, 5-7 % RH Ceramic Type Code: 2 (High Dielectric Constant Ceramics) Capacitance Change Code: capacitance change relative to 2 C capacitance value over the entire temperature range: E: +2/-56 % without AC voltage and +22/-7 % with AC voltage F: +3/-8 % without AC voltage and +3/-9 % with AC voltage Temperature Range Code: 3: -4/85 C 4: -25/85 C Application Class Climatic Humidity Stress according to Category Annual for 3 days for 6 days DIN 4 4 according to average per year per year DIN 445 continuously continuously HPF GPF -25/85/21-4/85/21 <75 % 95% - 85% on the remaining days occasionally Following the final heat treatment all Type 2 ceramic capacitors reduce their capacitance value according to logarithmic law due to their special crystalline structure. This change is called ageing. If the capacitor is heated, for example during soldering, the capacitance value increases tohigher value and the aging process begins again. The level of de-ageing depends on temperature and duration of the heat - for example an almost complete deaging is achieved at C in one hour. These conditions are also the basis for reference measurements for any testing. Ageing constant is defined as capacitance change per time decade. Ageing constant differs for various types of ceramics. For 2E3 and 2F3 ceramics used for RFI suppression and safety capacitors ageing constant ranges from -3 to -5%.

14 98 Capacitors Term Symbol Definition Reference Measurements Soldering Specifications Climatic Category Storage Due to ageing it is necessary to quote an age for reference measurements which can be related to the capacitance with the fixed tolerance. As defined in CECC 37 this age is H. If the age of the capacitor is known, the capacitance for T= h can be calculated using known ageing constant: K= (C1-C2)/[C1*log t1/t2] => C2 = C1*[1-k/(*log(t1/t2))], where k is ageing constant in %, t1, t2 are measurement time points and C1, C2 capacitance values at time t1 and t2 respectively. It is important to de-age the capacitors before any stress testing, so that the changes as a result of the test are not affected by age. The following procedure should be used for any stress measurements (according to CECC 37, appendix B): - de-aging at C, 1h - storage: 24h at 2-25 C, 5-7 % RH - initial measurements - stress test - de-ageing at C - storage: 24h at 2-25 C, 5-7 % RH - final measurements Conditions Soldering Soldering Time Distance form Component Body Temperature Solder ability 25 ± 5 C 2 ±,5 s > 2 mm Resistance to Soldering Heat LCT/UCT/DHD 295 ± 5 C ± 1 s > 5 mm UCT = The maximum surface temperature for which the capacitor has been designed to operate continuously LCT = The minimum surface temperature for which the capacitor has been designed to operate continuously DHD = Dump Heat Test Duration Solder ability of leads is not affected by storage for 24 months, if storage temperature is -35 C and relative humidity up to 6%. Flammability Active The ability to burn with flame as a consequence of electrical loading. The minimum category of passive flammability is category C. Passive The ability of a capacitor to burn with flame as a consequence of application of an external source of heat. Capacitance Temperature Characteristics Capacitance Frequency Characteristics Capacitance Voltage Characteristics C/C (%) Capacitance 2E tan x -3 C/C (%) Capacitance 2E3 nf 1 nf tan x -3 C/C (%) E3-8 tan -55 tan Temperature ( C) Frequency (Hz) Vrms (%) Capacitance Temperature Characteristics Capacitance Frequency Characteristics Capacitance Voltage Characteristics C/C (%) Capacitance 2F3 tan Temperature ( C) tan x -3 C/C (%) F3 tan Capacitance nf Frequency (Hz) tan x -3 C/C (%) F Vrms (%)

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