DEC1X3J220JC4B

Reference Specification DEC Series Lead Type Disc Ceramic Capacitors of DC6.3kV ratings for General Purpose Product specifications in this catalog are as of Dec. 2017, and are subject to change or obsolescence without notice. Please consult the approval sheet before ordering.Please read rating and Cautions first. Reference only CAUTION 1. OPERATING VOLTAGE When DC-rated capacitors are to be used in AC or ripple current circuits, be sure to maintain the Vp-p value of the applied voltage or the Vo-p which contains DC bias within the rated voltage range. When the voltage is started to apply to the circuit or it is stopped applying, the irregular voltage may be generated for a transit period because of resonance or switching. Be sure to use a capacitor within rated voltage containing these irregular voltage. When DC-rated capacitors are to be used in input circuits from commercial power source (AC filter), be sure to use Safety Recognized Capacitors because various regulations on withstand voltage or impulse withstand established for each equipment should be taken into considerations. Voltage Positional Measurement DC Voltage Vo-p DC+AC Voltage Vo-p AC Voltage Vp-p Pulse Voltage(1) Pulse Voltage(2) Vp-p Vp-p 2. OPERATING TEMPERATURE AND SELF-GENERATED HEAT Keep the surface temperature of a capacitor below the upper limit of its rated operating temperature range. Be sure to take into account the heat generated by the capacitor itself. When the capacitor is used in highfrequency current, pulse current or similar current, it may self- generate heat due to dielectric-loss. The frequency of the applied sine wave voltage should be less than 300kHz. The applied voltage load(*) should be such that the capacitor’s self-generated heat is within 20 ℃ at the atmosphere temperature of 25 ℃. When measuring, use a thermocouple of small thermal capacity-K of φ0.1mm in conditions where the capacitor is not affected by radiant heat from other components or surrounding ambient fluctuations. Excessive heat may lead to deterioration of the capacitor’s characteristics and reliability. (Never attempt to perform measurement with the cooling fan running. Otherwise, accurate measurement cannot be ensured.) * Before using SL characteristic capacitor (low dissipation), be sure to read the instructions in item 4. 3. FAIL-SAFE When capacitor would be broken, failure may result in a short circuit. Be sure to provide an appropriate fail-safe function like a fuse on your product if failure would follow an electric shock, fire or fume. EGD12F 1 / 12 Reference only 4. LOAD REDUCTION AND SELF-GENERATED HEAT DURING APPLICATION OF HIGH-FREQUENCY AND HIGH-VOLTAGE In the case of SL characteristic capacitors, due to the low self-heating characteristics of low-dissipation capacitor, the allowable electric power is much higher than the general B characteristic. However, in case the self-heating temperature is 20 ℃ under a high-frequency voltage whose peak-to-peak value equals the capacitors rated voltage, the capacitors power consumption may exceeded it’s allowable electric power. Therefore, when using the SL characteristic capacitors in a high-frequency and high-voltage circuit with a frequency of 1kHz or higher, make sure that the Vp-p values including the DC bias, do not exceed the applied voltage value specified in Table 1. Also make sure that the self-heating temperature (the difference between the capacitor’s surface temperature and the capacitor’s ambient temperature) at an ambient temperature of 25 ℃ does not exceed the value specified in Table 1. As shown in Fig. 1, the self-heating temperature depends on the ambient temperature. Therefore, if you are not able to set the ambient temperature to approximately 25 ℃, please contact our sales representatives or product engineers. Allowable Conditions at High-frequency Allowable Conditions at High-frequency *3 Temp. DC Rated Char. Voltage Capacitor’s Ambient Temp. *2 Applied Voltage Self-heating Temp. (max.) (25 ℃ Ambient Temp.) *1 SL 6.3kV 6300Vp-p 5 ℃ max. -25 to +85 ℃ *1 When the ambient temperature is 85 to 125 ℃, the applied voltage needs to be further reduced. If the low-dissipation capacitors need to be used at an ambient temperature of 85 to 125 ℃, please contact our sales representatives or product engineers. *2 Fig. 2 shows reference data on the allowable voltage-frequency characteristic for a sine wave voltage. Dependence of Self-heating Temperature on Ambient Temperature D EC s eries SL c har. (R ated voltage D C 6.3kV) Self heating temp. ℃ [ ] 20 15 10 5 SL c har. (6.3kV) 0 0 2 0 (25) 40 60 Am bient tem p. [℃ ] 80 100 Allowable Voltage (Sine Wave Voltage) – Frequency Characteristic [At Ambient Temperature of 85 ℃ or less] Because of the influence of harmonics, when the applied voltage is a rectangular wave or pulse wave voltage (instead of a sine wave voltage), the heat generated by the capacitor is higher than the value obtained by application of the sine wave with the same fundamental frequency. Roughly calculated for reference, the allowable voltage for a rectangular wave or pulse wave corresponds approximately to the allowable voltage for a sine wave whose fundamental frequency is twice as large as that of the rectangular wave or pulse wave. This allowable voltage, however, varies depending on the voltage and current waveforms. Therefore, you are requested to make sure that the self-heating temperature is not higher than the value specified in Table 1. D EC s eries S L c har. (R ated voltage : D C 6.3kV) 10000 Allowable voltage [Vp-p] (6300) to 22pF 47pF 100pF 1000 100 1 10 100 F re q u e n cy [kHz] EGD12F 2 / 12 1000 Reference only 5. VIBRATION AND IMPACT Do not expose a capacitor or its leads to excessive shock or vibration during use. 6. SOLDERING When soldering this product to a PCB/PWB, do not exceed the solder heat resistance specification of the capacitor. Subjecting this product to excessive heating could melt the internal junction solder and may result in thermal shocks that can crack the ceramic element. When soldering capacitor with a soldering iron, it should be performed in following conditions. Temperature of iron chip : 400 ℃ max. Soldering iron wattage : 50 W max. Soldering time : 3.5 s max. 7. BONDING, RESIN MOLDING AND COATING In case of bonding, molding or coating this product, verify that these processes do not affect the quality of capacitor by testing the performance of the bonded, molded or coated product in the intended equipment. In case of the amount of applications, dryness / hardening conditions of adhesives and molding resins containing organic solvents (ethyl acetate, methyl ethyl ketone, toluene, etc.) are unsuitable, the outer coating resin of a capacitor is damaged by the organic solvents and it may result, worst case, in a short circuit. The variation in thickness of adhesive, molding resin or coating may cause a outer coating resin cracking and/or ceramic element cracking of a capacitor in a temperature cycling. 8. TREATMENT AFTER BONDING, RESIN MOLDING AND COATING When the outer coating is hot (over 100 ℃) after soldering, it becomes soft and fragile. So please be careful not to give it mechanical stress. Failure to follow the above cautions may result, worst case, in a short circuit and cause fuming or partial dispersion when the product is used. 9. OPERATING AND STORAGE ENVIRONMENT The insulating coating of capacitors does not form a perfect seal; therefore, do not use or store capacitors in a corrosive atmosphere, especially where chloride gas, sulfide gas, acid, alkali, salt or the like are present. And avoid exposure to moisture. Before cleaning, bonding, or molding this product, verify that these processes do not affect product quality by testing the performance of a cleaned, bonded or molded product in the intended equipment. Store the capacitors where the temperature and relative humidity do not exceed -10 to 40 C and 15 to 85%. Use capacitors within 6 months after delivered. Check the solderability after 6 months or more. 10. LIMITATION OF APPLICATIONS Please contact us before using our products for the applications listed below which require especially high reliability for the prevention of defects which might directly cause damage to the third party’s life, body or property. 1. Aircraft equipment 2. Aerospace equipment 3. Undersea equipment 4. Power plant control equipment 5. Medical equipment 6. Transportation equipment (vehicles, trains, ships, etc.) 7. Traffic signal equipment 8. Disaster prevention / crime prevention equipment 9. Data-processing equipment exerting influence on public 10. Application of similar complexity and/or reliability requirements to the applications listed in the above. EGD12F 3 / 12 Reference only NOTICE 1. CLEANING (ULTRASONIC CLEANING) To perform ultrasonic cleaning, observe the following conditions. Rinse bath capacity : Output of 20 watts per liter or less. Rinsing time : 5 min maximum. Do not vibrate the PCB/PWB directly. Excessive ultrasonic cleaning may lead to fatigue destruction of the lead wires. 2. CAPACITANCE CHANGE OF CAPACITORS - Class 1 capacitors Capacitance might change a little depending on a surrounding temperature or an applied voltage. Please contact us if you use for the strict time constant circuit. - Class 2 and 3 capacitors Class 2 and 3 capacitors like temperature characteristic B, E and F have an aging characteristic, whereby the capacitor continually decreases its capacitance slightly if the capacitor leaves for a long time. Moreover, capacitance might change greatly depending on a surrounding temperature or an applied voltage. So, it is not likely to be able to use for the time constant circuit. Please contact us if you need a detail information. NOTE 1.Please make sure that your product has been evaluated in view of your specifications with our product being mounted to your product. 2.You are requested not to use our product deviating from this specification. EGD12F 4 / 12 Reference only 1. Application This specification is applied to Lead Type Disc Ceramic Capacitors of DC6.3 kV ratings and Class1,2 of DEC series used for General Electric equipment. Do not use these products in any automotive power train or safety equipment including battery chargers for electric vehicles and plug-in hybrids. 2. Rating 2-1. Operating temperature range -25  +85C 2-2. Part number configuration ex.) DEC Series B3 Temperature characteristic 3J 102 Rated Capacitance voltage K C4 B Capacitance Lead Packing Individual tolerance code style code specification . Temperature characteristic Code Temperature characteristic 1X SL B3 B E3 E Please confirm detailed specification on  Specification and test methods .  Rated voltage Code 3J Rated voltage DC6.3kV  Capacitance The first two digits denote significant figures ; the last digit denotes the multiplier of 10 in pF. ex.) In case of 102. 10102 = 1000pF  Capacitance tolerance Please refer to  Part number list .  Lead code Code Lead style Vertical crimp long type A Straight long type C  Please refer to  Part number list . Solder coated copper wire is applied for termination.  Packing style code Code B Packing type Bulk type  Individual specification In case part number cannot be identified without ‘individual specification’ , it is added at the end of part number. ETDEC01E 5 / 12 Reference only 3. Marking Temperature characteristic : Letter code (Omitted for char. SL, char. E and maximum body diameter  9mm and under of char. B.) Nominal capacitance : Actual value (under 100pF) 3 digit system (100pF and over) Capacitance tolerance : Code Rated voltage : Letter code (In case of DC6.3kV marked with 6KV) Company name code : Abbreviation (Omitted for maximum body diameter  9mm and under) Manufacturing year : Letter code(The last digit of A.D. year.) (Omitted for maximum body diameter  7mm and under) Manufacturing month : Code(Omitted for maximum body diameter  7mm and under) Feb./Mar.  2 Aug./Sep.  8 Apr./May  4 Oct./Nov.  O Jun./Jul.  6 Dec./Jan.  D (Example) B 102K ETDEC01E 6 / 12 Reference only 4. Part number list Unit : mm Dimension (mm) DC Rated Volt. (V) D T F d Lead Code Pack qty. (pcs) 0.6 A3 250 0.6 C4 250 T.C. Cap. Cap. (pF) SL 10 ±5% DEC1X3J100JA3BMS1 6300 7.0 7.0 7.5 SL 10 ±5% DEC1X3J100JC4BMS1 6300 7.0 7.0 10.0 SL 12 ±5% DEC1X3J120JA3B 6300 8.0 7.0 7.5 0.6 A3 250 SL 12 ±5% DEC1X3J120JC4B 6300 8.0 7.0 10.0 0.6 C4 250 SL 15 ±5% DEC1X3J150JA3B 6300 8.0 7.0 7.5 0.6 A3 250 SL 15 ±5% DEC1X3J150JC4B 6300 8.0 7.0 10.0 0.6 C4 250 SL 18 ±5% DEC1X3J180JA3B 6300 9.0 7.0 7.5 0.6 A3 250 SL 18 ±5% DEC1X3J180JC4B 6300 9.0 7.0 10.0 0.6 C4 250 SL 22 ±5% DEC1X3J220JA3B 6300 9.0 7.0 7.5 0.6 A3 250 SL 22 ±5% DEC1X3J220JC4B 6300 9.0 7.0 10.0 0.6 C4 250 SL 27 ±5% DEC1X3J270JA3B 6300 9.0 7.0 7.5 0.6 A3 250 SL 27 ±5% DEC1X3J270JC4B 6300 9.0 7.0 10.0 0.6 C4 250 SL 33 ±5% DEC1X3J330JA3B 6300 9.0 7.0 7.5 0.6 A3 250 SL 33 ±5% DEC1X3J330JC4B 6300 9.0 7.0 10.0 0.6 C4 250 SL 39 ±5% DEC1X3J390JA3B 6300 9.0 7.0 7.5 0.6 A3 250 SL 39 ±5% DEC1X3J390JC4B 6300 9.0 7.0 10.0 0.6 C4 250 SL 47 ±5% DEC1X3J470JA3B 6300 9.0 7.0 7.5 0.6 A3 250 SL 47 ±5% DEC1X3J470JC4B 6300 9.0 7.0 10.0 0.6 C4 250 SL 56 ±5% DEC1X3J560JC4B 6300 10.0 7.0 10.0 0.6 C4 100 SL 68 ±5% DEC1X3J680JC4B 6300 12.0 7.0 10.0 0.6 C4 100 SL 82 ±5% DEC1X3J820JC4B 6300 12.0 7.0 10.0 0.6 C4 100 SL 100 ±5% DEC1X3J101JC4B 6300 13.0 7.0 10.0 0.6 C4 100 SL 120 ±5% DEC1X3J121JC4B 6300 14.0 7.0 10.0 0.6 C4 100 SL 150 ±5% DEC1X3J151JC4B 6300 15.0 7.0 10.0 0.6 C4 100 B 100 ±10% DECB33J101KC4B 6300 9.0 7.0 10.0 0.6 C4 250 B 150 ±10% DECB33J151KC4B 6300 9.0 7.0 10.0 0.6 C4 250 B 220 ±10% DECB33J221KC4B 6300 9.0 7.0 10.0 0.6 C4 250 tol. Customer Part Number Murata Part Number 7 / 12 Reference only Unit : mm T.C. Cap. Cap. (pF) tol. Customer Part Number Murata Part Number Dimension (mm) DC Rated Volt. (V) D T F d Lead Code Pack qty. (pcs) B 330 ±10% DECB33J331KC4B 6300 9.0 7.0 10.0 0.6 C4 250 B 470 ±10% DECB33J471KC4B 6300 10.0 7.0 10.0 0.6 C4 100 B 680 ±10% DECB33J681KC4B 6300 11.0 7.0 10.0 0.6 C4 100 B 1000 ±10% DECB33J102KC4B 6300 13.0 7.0 10.0 0.6 C4 100 E 1000 +80/-20% DECE33J102ZC4B 6300 11.0 7.0 10.0 0.6 C4 100 E 2200 +80/-20% DECE33J222ZC4B 6300 15.0 7.0 10.0 0.6 C4 100 8 / 12 Reference only 5. Specification and test methods No. Item 1 Appearance and dimensions 2 3 4 Marking Dielectric strength Between lead wires Body insulation No failure. Between lead wires 10 000M min. 5 Insulation Resistance (I.R.) Capacitance 6 Q 7 Dissipation Factor (D.F.) Temperature characteristic 8 Strength of lead Specification No marked defect on appearance form and dimensions. Please refer to [Part number list]. To be easily legible. No failure. Within specified tolerance. Pull Test method The capacitor should be inspected by naked eyes for visible evidence of defect. Dimensions should be measured with slide calipers. The capacitor should be inspected by naked eyes. The capacitor should not be damaged when DC voltage of 200% of the rated voltage are applied between the lead wires for 1 to 5 s. (Charge/Discharge current50mA.) The capacitor is placed in the container with metal balls of diameter 1mm so that each lead wire, shortcircuited, is kept about 2mm off the balls as shown in the figure, and DC voltage of 1.3kV is applied for 1 to 5 s between About 2mm capacitor lead wires and small metals. Metal balls (Charge/Discharge current50mA.) The insulation resistance should be measured with DC50050V within 605 s of charging. The capacitance should be measured at 20C with 10.2kHz (Char. SL : 10.2MHz) and AC5V(r.m.s.) max.. The dissipation factor and Q should be measured at 20C with 10.2kHz (Char. SL : 10.2MHz) and AC5V(r.m.s.) max.. Char. SL : 400+20C*²min. (30pF under) 1000 min. (30pF min.) Char. B,E : 2.5% max. The capacitance measurement should be made at Char. SL : +350 to - 1 000ppm/C (Temp. range: +20 to 85C) each step specified in Table. Char. B : Within 10 % Char. E : Within +20/-55% Pre-treatment : Capacitor should be stored at 852C for 1 h, then placed at *¹room condition for 242 h before initial measurements. (Char. B,E) Step 1 2 3 4 5 Temp.(C) 202 -253 202 852 202 Lead wire should not cut off. Capacitor should not be broken. As shown in the figure at right, fix the body of the capacitor and apply a tensile weight gradually to each lead wire in the radial direction of the capacitor up to 10N and keep it for 101 s. Bending Each lead wire should be subjected to 5N of weight and bent 90 at the point of egress, in one direction, then returned to its original position and bent 90 in the opposite direction at the rate of one bend in 2 to 3 s. 9 Vibration Appearance No marked defect. The capacitor should be firmly soldered to the resistance supporting lead wire and vibrated at a frequency Capacitance Within specified tolerance. range of 10 to 55Hz, 1.5mm in total amplitude, with Q Char. SL : 400+20C*²min. (30pF under) about a 1min rate of vibration change from 10Hz to 55Hz and back to 10Hz. Apply for a total of 6 h; 1 000 min. (30pF min.) 2 h each in 3 mutually perpendicular directions. D.F. Char. B,E : 2.5% max. 10 Solderability of leads Lead wire should be soldered The lead wire of a capacitor should be dipped into a with uniformly coated on the axial ethanol solution of 25wt% rosin and then into direction over 3/4 of the molten solder for 20.5 s. In both cases the depth of circumferential direction. dipping is up to about 1.5 to 2mm from the root of lead wires. Temp. of solder : 245±5°C Lead Free Solder (Sn-3Ag-0.5Cu) 235±5°C H63 Eutectic Solder *¹ "room condition" Temperature: 15 to 35C, Relative humidity: 45 to 75%, Atmospheric pressure: 86 to 106kPa *² "C" expresses nominal capacitance value (pF) ESDEC01A 9 / 12 Reference only No. 11 Item Soldering effect Appearance (Non-preheat) Capacitance change Dielectric strength (Between lead wires) 12 Soldering effect (On-preheat) Appearance Capacitance change Dielectric strength (Between lead wires) 13 Humidity (Under steady state) Appearance Capacitance change Q 14 Humidity loading D.F. I.R. Appearance Capacitance change Specification No marked defect. Char. SL : Within  2.5% Char. B : Within  5% Char. E : Within  15% Per item 3. No marked defect. Char. SL : Within  2.5% Char. B : Within  5% Char. E : Within  15% Per item 3. No marked defect. Char. SL : Within  5% Char. B : Within 10% Char. E : Within 20% Char. SL : 275+5/2C*²min. (30pF under) 350 min. (30pF min.) Char. B,E : 5.0% max. 1 000M min. No marked defect. Char. SL : Within  7.5% Char. B : Within 10% Char. E : Within 20% Char. SL : 100+10/3C*²min. (30pF under) 200 min. (30pF min.) Char. B,E : 5.0% max. 500M min. Test method The lead wire should be immersed into the melted solder of 35010C up to about 1.5 to 2.0mm from the main body for 3.50.5 s. Pre-treatment : Capacitor should be stored at 852C for 1 h, then placed at *¹room condition for 242 h before initial measurements. (Char. B,E) Post-treatment : Capacitor should be stored for 1 to 2 h at *¹room condition. (Char. SL) Post-treatment : Capacitor should be stored for 4 to 24 h at *¹room condition. (Char. B,E) First the capacitor should be stored at 120+0/-5°C for 60+0/-5 s. Then, as in figure, the lead wires should be immersed solder of 260+0/-5°C up to 1.5 to 2.0mm from the root of terminal for 7.5+0/-1 s. Pre-treatment : Capacitor should be stored at 852C for 1 h, then placed at *¹room condition for 242 h before initial measurements. (Char. B,E) Post-treatment : Capacitor should be stored for 1 to 2 h at *¹room condition. (Char. SL) Post-treatment : Capacitor should be stored for 4 to 24 h at *¹room condition. (Char. B,E) Set the capacitor for 500 +24/-0 h at 402C in 90 to 95% relative humidity. Pre-treatment : Capacitor should be stored at 852C for 1 h, then placed at *¹room condition for 242 h before initial measurements. (Char. B,E) Post-treatment : Capacitor should be stored for 1 to 2 h at *¹room condition. Apply the rated voltage for 500 +24/-0 h at 402C in 90 to 95% relative humidity. (Charge/Discharge current50mA.) Pre-treatment : Capacitor should be stored at 852C for 1 h, then placed at Q *¹room condition for 242 h before initial measurements. (Char. B,E) Post-treatment : Capacitor should be stored for 1 to D.F. 2 h at *¹room condition. (Char. SL) I.R. Post-treatment : Capacitor should be stored at 852C for 1 h, then placed at *¹room condition for 242 h. (Char. B,E) *¹ "room condition" Temperature: 15 to 35C, Relative humidity: 45 to 75%, Atmospheric pressure: 86 to 106kPa *² "C" expresses nominal capacitance value (pF) ESDEC01A 10 / 12 Reference only No. 15 Item Life Appearance Capacitance change Q D.F. I.R. 16 Temperature and Immersion cycle Appearance Capacitance change Q D.F. I.R. Dielectric strength (Between lead wires) Specification No marked defect. Char. SL : Within  3% Char. B : Within 10% Char. E : Within 20% Char. SL : 275+5/2C*²min. (30pF under) 350 min. (30pF min.) Char. B,E : 4.0% max. 2 000M min. No marked defect. Char. SL : Within  3% Char. B : Within 10% Char. E : Within 20% Char. SL : 275+5/2C*²min. (30pF under) 350 min. (30pF min.) Char. B,E : 4.0% max. 2 000M min. Per item 3. Test method Apply a DC voltage of 150% of the rated voltage for 1 000 +48/-0 h at 852C, and relative humidity of 50% max.. (Charge/Discharge current50mA.) Pre-treatment : Capacitor should be stored at 852C for 1 h, then placed at *¹room condition for 242 h before initial measurements. (Char. B,E) Post-treatment : Capacitor should be stored for 1 to 2 h at *¹room condition. (Char. SL) Post-treatment : Capacitor should be stored at 852C for 1 h, then placed at *¹room condition for 242 h. (Char. B,E) The capacitor should be subjected to 5 temperature cycles, then consecutively to 2 immersion cycles. Step 1 2 3 4 Time Temperature(C) 30 min -253 Room Temp. 3 min 30 min +853 Room Temp. 3 min Cycle time : 5 cycle Step Temperature(C) Time 1 +65+5/-0 15 min 2 03 15 min Immersion water Clean water Salt water Cycle time : 2 cycle Pre-treatment : Capacitor should be stored at 852C for 1 h, then placed at *¹room condition for 242 h before initial measurements. (Char. B,E) Post-treatment : Capacitor should be stored for 4 to 24 h at *¹room condition. *¹ "room condition" Temperature: 15 to 35C, Relative humidity: 45 to 75%, Atmospheric pressure: 86 to 106kPa *² "C" expresses nominal capacitance value (pF) ESDEC01A 11 / 12 Reference only 6. Packing specification Bulk type (Packing style code : B) The size of packing case and packing way Polyethylene bag Partition 125 max. 270 max. Unit : mm 340 max. The number of packing = 1 Packing quantity  2 n 1 : Please refer to [Part number list]. 2 : Standard n = 20 (bag) Note) The outer package and the number of outer packing be changed by the order getting amount. EKBCDE02 12 / 12 Appendix 添付資料 EU RoHS RoHS指令への対応 This products of the following crresponds to EU RoHS 当製品は以下の欧州RoHSに対応しています。　 (1) RoHS 　EU RoHs 2011/65/EC compliance 　2011/65/EC（改正RoHS指令）に対応 　maximum concentration values tolerated by weight in homogeneous materials 　・1000 ppm maximum Lead 　・1000 ppm maximum Mercury 　・100 ppm maximum Cadmium 　・1000 ppm maximum Hexavalent chromium 　・1000 ppm maximum Polybrominated biphenyls (PBB) 　・1000 ppm maximum Polybrominated diphenyl ethers (PBDE) 　鉛：1000ppm以下 　水銀：1000ppm以下 　カドミウム：100ppm以下 　六価クロム：1000ppm以下 　ポリ臭化ビフェニル(PBB)：1000ppm以下 　ポリ臭化ジフェニルエーテル(PBDE)：1000ppm以下